🧵 3D Printing Course, Innovative Learning Environments, Creative Process and Design Thinking 💡🥼👷‍♀️STEM & English Education 🎓Masterclass for Students & Teachers

In this lesson, we will be exploring the benefits of tinkering and the maker movement as a way of learning. We will discuss how tinkering and making encourage individuals to take an active role in their own learning, fostering a sense of curiosity and a desire to learn more. We will also talk about how tinkering and making can be a great way to learn about different subjects and concepts in a more hands-on and interactive way.

The history of 3D printing, also known as additive manufacturing, can be traced back to the 1980s, although the concept of creating objects layer by layer dates back much further. In the early 1980s, Chuck Hull invented the first 3D printing process, known as stereolithography. This process involved using a laser to cure layers of resin into solid objects.

There are several different types of 3D printers, each with its own unique capabilities and characteristics. The type of 3D printer you choose will depend on your specific needs and budget. Extrusion-based printers are a good choice for beginners or those on a tight budget, while resin-based printers are better for producing highly detailed prints, and powder-based printers are best for printing functional parts and prototypes.

When it comes to 3D printing, there are many different factors to consider when choosing a printer. In this lesson, we will explore some of the key factors that you should consider when selecting a 3D printer.

Resin 3D printers, also known as stereolithography (SLA) printers, are a type of additive manufacturing technology that uses photosensitive resin to create physical objects layer by layer. These printers are known for their high resolution, accuracy, and ability to produce finely detailed objects. However, they also have some limitations and require special handling and maintenance. In this lesson, we will take an in-depth look at how resin 3D printers work, what they are good at, and when you should consider getting one.

In this lesson, we will see the full process, step by step, of 3d printing an object, starting from creating a 3D model of the object using computer-aided design software or downloading from a gallery, exporting the model to a slicer program to slice it into layers, and then exporting the sliced model to an SD card and inserting it into the 3D printer. It is important to prepare the printer by checking and cleaning it, loading the filament, and starting the printing process, paying particular attention to the first layer. After the object has finished printing and has cooled down, it can be removed from the print bed and may require additional cleaning or finishing work before it is ready for use.

Here are some additional terms that are commonly used in the field of 3D printing:

The Fourth Industrial Revolution, also known as Industry 4.0, refers to the current trend of automation and data exchange in manufacturing technologies, including developments in artificial intelligence, the Internet of Things, and 3D printing. 3D printing, or additive manufacturing, is a process of creating a physical object by building it layer by layer from a digital model. It has the potential to revolutionize the way we manufacture products by allowing for more customization, shorter lead times, and reduced waste.

The field of 3D printing is constantly evolving and new technologies are being developed all the time. However, there are a few trends that are likely to continue in the coming years. Overall, it is likely that we will see a continued expansion and diversification of the 3D printing market in the coming years, with new technologies and applications emerging that we can't even imagine yet.

Join us on our open server to share your progress and ask questions, engage and have fun with others and receive feedback. On the server, there are specific channels for each topic, where you can share your content and read what other members and course authors have posted. This is a great way to connect with others with the same passions and learn from each other's experiences and insights.

Mockup and prototyping are important tools in the design process, and they allow designers to test and refine their ideas before creating a final product. In this lesson, we will explore how mockups and prototypes can be used to improve the design of a 3D object, and we will also look at how children can use cardboard to create 3D mockups and prototypes as a way to learn about the design process.

To get started with TinkerCAD and 3D printing, you will need to sign up for a TinkerCAD account and create a new design. From there, you can use the various 3D shapes and tools available in TinkerCAD to create and customize your object. You can manipulate the size, shape, and appearance of your object using the various controls and options in TinkerCAD.

Some common terms you might encounter when using TinkerCAD and Keyboard shortcuts to access common tools and features in Tinkercad

Tinkercad's tutorial interface and movement tools are a key part of what makes the platform so user-friendly and accessible. Whether you are just starting out in 3D design or are an experienced designer looking to learn new skills, Tinkercad is an excellent choice for creating and exploring your ideas in a 3D space.

Tinkercad's shape manipulation and scaling tools are an essential part of the platform, allowing users to create complex shapes and forms and adjust the size of their designs as needed. These tools, along with Tinkercad's other features, make it an excellent choice for 3D design enthusiasts of all levels.

In this lesson, we will be focusing on some of the key tools that are available in Tinkercad, including the Group tool, the Hole tool, the Align tool, the Cut tool, and the Flip tool. Each of these tools has its own unique set of features and capabilities, and together they provide users with a wide range of options for creating and modifying designs. 

Workplane, Ruler, Blocks, and Bricks tools are all essential tools for anyone looking to create complex and precise designs using Tinkercad. By learning how to use these tools effectively, users can create a wide range of objects and structures with ease, making the Tinkercad platform a powerful and versatile tool for design and prototyping.

To create a multi-layered and multi-colored column in Tinkercad, you can use the "Column" and "Paint" features in the "Shapes" menu. Here is a step-by-step guide

Circular Patterns and Slicing tools are essential tools for anyone looking to create complex and precise designs using Tinkercad. By learning how to use these tools effectively, users can create a wide range of objects and structures with ease, making the Tinkercad platform a powerful and versatile tool for design and prototyping.

Tinkercad's import, export, and collaboration features make it a powerful tool for creating and modifying 3D designs. Whether you are working on a personal project or collaborating with others, Tinkercad has the tools you need to get the job done.

The Tinkercad Community Gallery is a platform where users can share and discover 3D designs created using the Tinkercad platform and is a great resource for finding inspiration, learning new techniques, and sharing your own designs with the community. 

TinkerCAD is a free, easy-to-use 3D design and modeling tool that is available as a web application and as an app for the iPad. It is a great tool for beginners to learn 3D modeling, as well as for more experienced designers looking to quickly create and test out ideas.

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Tinkercad is a powerful and versatile tool for 3D modeling in Minecraft. Whether you are a beginner or an experienced 3D modeler, Tinkercad has something to offer. With its user-friendly interface and wide range of features, it is an excellent choice for creating custom objects and worlds for Minecraft.

Inkscape is a free and open-source vector graphics editor that allows you to create and edit scalable vector graphics (SVG) files. With Inkscape, you can create a wide variety of graphics, including logos, illustrations, diagrams, and technical drawings.

Fusion 360 is a powerful software that is commonly used in a variety of industries, including rocket design.

By following this tutorial, you will learn the basics of 3D modeling in Fusion 360 and how to create a 3D printable makercoin. With these skills, you will be able to create a wide range of 3D-printed objects and prototypes.

3D printing is a process that allows you to create physical objects from digital 3D models. These models can be created using computer-aided design (CAD) software or scanned using 3D scanning technology. Before a 3D model can be printed, it must be prepared using slicing software.

Slicer software is a type of computer program that converts a 3D model into a set of instructions called G-code, which a 3D printer can understand and use to create a physical object. The slicer software takes the 3D model and "slices" it into thin layers, then generates the G-code instructions based on the specified print settings.

Cura is a powerful and user-friendly slicing software that is essential for preparing and printing 3D models with your 3D printer. It is important to familiarize yourself with the various slicer settings and options in order to get the best results from your printer.

In this lesson, we will go through the steps of selecting your 3D printer, loading a 3D model, updating your configuration settings, rotating and scaling your model, selecting intent profiles, opening the advanced settings, slicing your model, previewing the print, and finally sending your model to your 3D printer for printing.

The infill pattern is a slicer setting in 3D printing software that determines the shape of the internal structure of the printed object. This internal structure, or infill, is used to fill in the interior of the object and give it additional strength and rigidity.

One important aspect of 3D printing is the cost of materials, as the cost of filament can add up quickly depending on the size and complexity of your print. In this lesson, we will show you how to use Cura to estimate the cost of your 3D print so that you can plan and budget for your projects.

Print resolution in 3D printing refers to the level of detail and accuracy that can be achieved in the printed object. It is typically expressed in terms of layer thickness and X-Y resolution, measured in micrometers (μm) or dots per inch (dpi).

One challenge that 3D printing can present is the time it takes to print large parts or objects. This can be especially frustrating for those who are prototyping or working on a tight deadline. There are ways to increase the speed of your 3D printing without sacrificing too much in terms of quality. One key factor is understanding the limitations that can impact print speed. These include heating, cooling, and rigidity of the 3D printer's frame.

https://youtu.be/3kW9SnK4LKc?list=PLTCCNNvHC8PDR_jQy609toqq8EAfhiOOL

CURA offers a range of advanced features that can help you fine-tune your 3D prints and achieve the best possible results. It's important to carefully consider which features will be most beneficial for your specific project and to experiment with different settings to find the optimal configuration.

Ultimaker Cura v5.0 is a major update to the popular slicing software, featuring an entirely new slicing engine that offers significant improvements for existing 3D printer owners. One of the key improvements in the new slicing engine is the ability to modify the thickness of individual extrusion lines, allowing for finer details and stronger prints.

A 3D printer is a machine that can create physical objects from digital designs. It does this by building up the object layer by layer using materials such as plastic, metal, or ceramic.

3D printing can be intimidating for those who are new to it. In this lesson, we will cover the basics of 3D printing with filament printers, including the names and functions of the various parts of a 3D printer, how to care for and maintain your printer, and common issues you may encounter.

3D printing has the potential to revolutionize manufacturing, but it is important to ensure that the process is carried out safely. In this lesson, we will focus on the various safety considerations related to 3D printing, including proper ventilation, electrical safety, chemical hazards, noise hazards, physical hazards, and fire hazards. By following manufacturer guidelines and taking the necessary precautions, we can minimize the risks associated with 3D printing and ensure a safe working environment

3D printing generates waste and requires the handling of various materials. In this lesson, we will focus on best practices and strategies for managing materials and reducing waste in 3D printing.

In this lesson, we will explore some options for finding printable models, including design-sharing websites, scanning physical objects, and creating your own designs using computer-aided design (CAD) software.

Welcome to this lesson on printbed alignment and calibration in 3D printing. In this lesson, we will cover the importance of a good first layer in 3D printing and how proper printbed alignment and calibration can help to achieve it. We will also go over the steps for leveling and aligning the printbed and calibrating the distance between the printbed and the nozzle. By the end of this lesson, you should understand the importance of printbed alignment and calibration and how to properly perform these tasks to ensure the best possible results in your 3D prints.

Welcome to the lesson on 3D print supports and correct orientation for quality and optimization. In this lesson, we will be discussing the importance of properly designing and positioning your 3D prints in order to achieve the best possible results. We will cover topics such as the use of support structures, how to determine the best orientation for your prints, and how to optimize your design for successful 3D printing. By the end of this lesson, you will have a better understanding of how to ensure that your 3D prints come out looking their best and with minimal defects.

Welcome to the lesson on how to 3D print stronger parts. 3D printing can be a great way to create custom parts and prototypes, but sometimes the printed parts can be fragile or prone to breaking. In this lesson, we will discuss some techniques you can use to make your 3D-printed parts stronger and more durable.

https://youtu.be/1NzDr1YAb8Q?list=PLTCCNNvHC8PDR_jQy609toqq8EAfhiOOL

One of the common issues that can arise during a 3D printing process is a failure, which can be caused by a variety of factors. In this lesson, we will explore the sounds of 3D printing failure and what they can tell us about the underlying causes of the problem.

3D printing can be a very rewarding hobby, but it's not without its challenges. One common issue is poor-quality prints, which can be caused by a variety of factors including incorrect print settings, bed level, and extrusion temperature. In this article, we will discuss some common issues that can arise during 3D printing and provide tips for how to fix them.

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As with any technology, problems can arise during the 3D printing process that can impact the quality and accuracy of the final product. Identifying and fixing these problems is crucial to ensure that your 3D prints are successful and meet your desired specifications.

In this lesson, we will be discussing the TEAL (Technology-Enabled Active Learning) methodology, which is an approach to teaching and learning that utilizes technology and active learning techniques to engage and empower students. We will also be exploring the role of team building and 3D design in the TEAL approach.

A retrospective activity is a structured meeting or discussion that is held after a group project or activity to reflect on the work that was done and identify areas for improvement. This type of activity is particularly useful in the context of the TEAL methodology, which emphasizes active learning and teamwork. By reflecting on the process and outcomes of a project or activity, students can identify what went well and what could be done differently in the future to improve the quality of their work.

In recent years, the maker movement has gained popularity in education as a way to engage students in hands-on, project-based learning. One of the key benefits of the maker movement in education is that it encourages students to take an active role in the learning process. By giving students the opportunity to design, build, and test their own creations, the maker movement helps to foster a sense of agency and ownership over their learning. This approach to education can be particularly effective for students who may struggle with more traditional forms of instruction.

In recent years, the introduction of FabLabs and Digital Creative Ateliers in schools has allowed students to learn about design, modeling, prototyping, and 3D printing. These open and collaborative learning environments, also known as makerspaces, encourage students to take an active role in the learning process and explore their creativity through hands-on projects.

Project-based learning (PBL) is an educational approach that involves students in the creation of a real-world project or product. PBL encourages students to take an active role in the learning process, as they work on a problem or challenge that is relevant and meaningful to them.

In this lesson, we will cover how to use Tinkercad to design project-based units that rev up student engagement, inquiry, creativity, and innovation. We will also discuss how to increase access for all learners using principles of Universal Design for Learning (UDL) and how to address standards through interdisciplinary activities. Additionally, we will explore ways to assess student work in PBL and how to publish student work, with or without a 3D printer. Finally, we will provide some resources for increasing your Tinkercad skills and doing PBL with Tinkercad.

Incorporating 3D printing into the school curriculum has the potential to enhance learning and engage students in a meaningful way. By providing the necessary resources and support, schools can help students develop valuable skills and explore their creativity through 3D printing.

3D printing is a revolutionary technology that allows people to create physical objects from digital designs. It has the potential to transform a wide range of industries and revolutionize the way we make and design products. In recent years, 3D printing has also found its way into the classroom as a powerful tool for teaching and learning. 

Effective assessment is an important part of any educational program, and 3D printing is no exception. By using strategies such as rubrics, peer review, and portfolio assessment, teachers can more accurately evaluate student learning and progress with 3D printing. By providing clear criteria and support, and making use of technology, teachers can ensure that assessment is an integral and meaningful part of the 3D printing process.

Managing a 3D printing lab requires careful planning and organization. By implementing effective policies and procedures, providing training and support, and encouraging innovation and creativity, schools and organizations can maximize the benefits of this technology and provide students with valuable hands-on learning opportunities.

When choosing a 3D printer, it is important to consider the hardware, software, and safety aspects, particularly when it comes to children. In this lesson, we will explore the considerations for using 3D printing with children, including hardware options, software resources, and safety precautions. We will also discuss ideas and activities for learning more about 3D printing and incorporating it into educational settings.

The use of 3D printing in teaching STEM concepts has the potential to greatly enhance the learning experience of students. By providing a hands-on, experiential way to engage with STEM principles, 3D printing allows students to bring their ideas and designs to life, promotes customization and personalization, and encourages creativity

3D printing can be a powerful tool for engaging students in learning physics, math, engineering, and technology. By providing a hands-on, experiential way to engage with these subjects, 3D printing can help students to better understand and apply the underlying principles and concepts. We hope these examples have given you some ideas for how to incorporate 3D printing into your teaching of these subjects.

In this lesson, we will explore some examples of 3D printing activities in the following subjects: agriculture and environmental science, anthropology, art and design, astronomy, business and economics, career and technical education, chemistry, civic education, engineering, English and other foreign languages, ethics and philosophy, geography, history and social studies, home economics, language, arts, and critical thinking, law, math, music, physical education and health, physics, psychology, science, sociology, special education, and technology. 

The Greenhouse Effect is an interactive simulation that allows users to explore the concept of the greenhouse effect and how it affects the temperature of the Earth. The simulation includes several different modules, each of which focuses on a specific aspect of the greenhouse effect.

Problem-solving and creative thinking are important skills that can be applied to a wide range of situations in both personal and professional settings. These skills involve the ability to analyze a problem, generate ideas, and come up with a solution that is both effective and innovative.

One of the key benefits of 3D printing is its ability to create complex and customized designs that would be difficult or impossible to create using traditional manufacturing techniques. With 3D printing, users have the ability to create objects with intricate details and unique shapes that would be challenging to achieve using other methods. This allows users to unleash their creativity and push the boundaries of what is possible with traditional manufacturing techniques.

Applying problem-solving skills to 3D printing projects is essential for success in the field. 3D printing is a complex and nuanced technology, and there are many challenges that can arise during the design and production process. From technical issues with the printer itself to problems with the design or material, there are a wide range of potential roadblocks that can arise.

Design thinking is a problem-solving approach that focuses on understanding the needs and perspectives of users, and using that knowledge to create innovative solutions to complex problems. It is a holistic, human-centred approach to innovation that involves a series of steps or phases, including:

In this lesson, we will delve into the process of building a test stand that can accurately measure the performance of a water rocket. We will cover the use of pressure sensors and electronics to convert sensor readings into force measurements, the role of 3D printing in creating custom parts for the test stand, and the importance of calibration in ensuring accurate results. By the end of this lesson, you will have a better understanding of the steps involved in building a test stand for water rockets and be able to apply these principles to your own projects.

In this lesson, we will learn how to print a scale model of the Atlas V rocket using a 3D printer and slicing software. We will also explore the history and technology of the Atlas V rocket and its role in the space launch industry.