TinkerCAD is a free, web-based Computer-Aided Design (CAD) tool developed by Autodesk. It allows users to create 3D models through an intuitive, drag-and-drop interface, making it ideal for beginners, students, and educators who want to explore 3D design and printing. With its focus on simplicity, TinkerCAD helps students understand the fundamentals of 3D modeling without the steep learning curve that often accompanies more complex CAD software.
TinkerCAD is widely used in educational settings for teaching the basics of 3D design, geometry, engineering concepts, and even electronics through its built-in circuit design features. Students can create a wide range of objects, from simple geometric shapes to intricate mechanical parts, all of which can be exported for 3D printing.
So that means this module is a Mish-Mash of content related to the 3D printing Industry, and using a free tool like TinkerCAD to explore it.Β
Prerequisites:
No explicit prerequisite course work, 3D Printing or CAD tools experience is required. Come as you are. π§ Β
Topics:Β Why TinkerCAD is Ideal for Learning 3D Printing
Accessibility: TinkerCAD is web-based and free to use, meaning students can access it from anywhere without the need for powerful computers or paid software.
Ease of Use: The intuitive, drag-and-drop interface lowers the barrier to entry for students, allowing them to focus on learning core design and 3D printing concepts without being overwhelmed by complex software tools.
Scalability: Students can start with basic designs and gradually build up to more complex models. As they become more proficient, they can explore advanced features such as shape generators, circuit design, and more.
Creativity and Problem Solving: TinkerCAD encourages creativity, allowing students to design objects from scratch while teaching them problem-solving skills as they iterate on their designs based on feedback from physical prints.
TinkerCAD is a perfect gateway for students to learn 3D printing, providing them with a hands-on, engaging way to explore CAD software and digital manufacturing. Its simplicity and practical applications allow students to move quickly from digital models to physical objects, reinforcing core concepts in engineering, geometry, and technology... So we are going to explore that here.Β
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TinkerCAD is a powerful, user-friendly online platform for 3D design, electronics simulation, and coding. It allows students to create digital 3D models and translate them into real-world objects using 3D printing technology. TinkerCAD's intuitive interface makes it an excellent tool for beginners in 3D modeling and Computer-Aided Design (CAD), providing a stepping stone to more complex design platforms and technologies.
In todayβs world, 3D printing is revolutionizing industries like manufacturing, medicine, architecture, and even fashion. With tools like TinkerCAD, anyone can learn how to create detailed digital models and bring their ideas to life using a 3D printer. TinkerCAD and 3D Printing, introduces students to the basics of 3D modeling and printing, covering essential concepts such as object design, slicing, and the physical printing process.
Learn the basic tools and functions of TinkerCAD for 3D modeling.
Create simple 3D objects by manipulating shapes and geometries.
Understand how to prepare models for 3D printing using slicing software.
Explore the real-world applications of 3D printing across various industries.
Gain hands-on experience in converting digital designs into physical prototypes.
By mastering these skills, students will be empowered to design and prototype their own creative solutions, learning how to think like engineers and designers in a rapidly evolving technological landscape.
Author: Jim Burnham - TopClown@STEAMClown.org. License: Distributed as Open Source. (With some ChatGPT thrown in for good measure)Β
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No explicit prerequisite course work or coding knowledge is required, but students are expected to have a good understanding of basic computer principles and interested in gaining hands-on experience with TinkerCAD and 3D printing.
Primer: Β "Aaron, I can imagine no way in which this thing could be considered anywhere remotely close to safe. All I know is I spent six hours in there and I'm still alive... You still want to do it?"
As with any activity, please make sure you are using appropriate safety equipment. Β If you are coding, writing, reading, or working a lab, make sure you stand up and stretch every hour or so,Β Please consider any safety issues connecting to a Raspberry Pi, Arduino, computers and other electronic equipment.
How can we transform digital designs into real-world objects using 3D printing?
How does the geometry of a 3D model influence its strength, functionality, and aesthetics when 3D printed?
What are the key steps in turning a digital design into a 3D-printed object, and how can we optimize each step?
In what ways can 3D printing be used to impact fields like medicine, architecture, fashion, and engineering?
TinkerCAD:
Workplane - The flat, grid-like surface in TinkerCAD where students build their 3D models. It acts as a reference plane for positioning and aligning objects in the design.
Primitive Shapes - Basic 3D shapes such as cubes, cylinders, spheres, and cones that serve as the building blocks for creating more complex models in TinkerCAD.
Grouping p - The process of combining multiple shapes into a single object. Grouping simplifies complex designs by merging shapes into one cohesive structure.
Hole - A feature in TinkerCAD that allows students to remove parts of an object by turning a shape into a "hole" and combining it with another shape to cut or carve out portions.
Align - A tool in TinkerCAD used to position objects relative to one another with precision, ensuring symmetry and proper placement in the design.
Snap To Grid - A feature that enables users to move objects in increments based on the grid, providing control over the precision of movements and alignments while designing.
Ruler Tool - A tool that allows students to measure distances and dimensions of objects in TinkerCAD, helping ensure accuracy in scaling and positioning designs.
Scale - The process of resizing objects in TinkerCAD by adjusting their dimensions along the X, Y, or Z axes. Scaling allows students to increase or decrease the size of their models proportionally.
Mirror - A tool that reflects an object along a specified axis, allowing students to create symmetrical designs by duplicating and flipping parts of their models.
Export - The function that allows users to save their TinkerCAD models as files (e.g., STL, OBJ) that can be used for 3D printing or imported into other CAD software.
3D Printing, and CAD:
CAD (Computer-Aided Design) - A type of software used to create precise drawings and models of objects in two or three dimensions. In 3D printing, CAD tools like TinkerCAD allow users to design objects that can be printed in the real world.
3D Modeling - The process of creating a digital representation of a three-dimensional object using software. In TinkerCAD, students learn to manipulate shapes to create detailed models.
Slicing - The process of converting a 3D model into instructions (G-code) that a 3D printer can follow, breaking the model into thin layers for printing. Slicing software is essential to prepare designs for printing.
Extruder - The part of a 3D printer responsible for melting the filament and laying down the material layer by layer to create the printed object.
Filament - The material used by 3D printers to create objects. Common filament materials include PLA and ABS plastics, which are melted and deposited during the printing process.
STL File - A common file format for 3D models, typically used for 3D printing. STL files represent the surface geometry of a 3D object without any texture or color.
G-code - A language used by 3D printers to follow specific instructions for the movement of the printer's nozzle, controlling where and how material is deposited during the printing process.
XYZ Axis - The three-dimensional coordinate system used in 3D modeling and printing. The X-axis represents horizontal movement, the Y-axis represents vertical movement, and the Z-axis represents depth or height.
Supports - Temporary structures added during the slicing process to support parts of a 3D model that overhang or would be printed in mid-air. Supports are removed after printing.
Infill - The interior structure of a 3D-printed object. Infill settings determine how much material is used to fill the inside of a print, affecting strength, weight, and print time.
Take the Pre-Quiz to get a better self assessment.Β Sometimes we feel like we already know a topic, and maybe we can just do a quick review.Β Other times we find we need to go a little deeper.Β By taking a quick self assessment, you can measure how much effort you need to put into this section.
Whole Number Pre-Quiz
If you scored 79% or less, you should probably spend a 20-30 min reviewing this section. Even if you scored 100%, it can't hurt to spend 10-15 min.
Discover the user-friendly interface and versatility of Tinkercad and find out how itβs revolutionizing digital creation. This comprehensive guide explores Tinkercadβs 3D design features, equipping you with the skills to harness its full potential for advanced projects and creations. Written by a patented inventor and Tinkercad expert with over a decade of experience in technology education, this book offers an accessible, yet thorough approach to mastering Tinkercad for users of all levels.
Mr. Jason Erdreich - Learning how to 3D Model with TinkercadΒ channel
YouTube - Advanced Tinkercad Tutorials - by Teaching3DPrintingΒ
YouTube - How to Use Tinkercad for 3D Printing (Step-by-Step Beginnerβs Guide) -Β
YouTube - TinkerCAD - Tutorial for Beginners in 10 MINS! [ FULL GUIDE 2024 ] -Β
Reddit - https://www.reddit.com/r/tinkercad/comments/1iu8tym/best_resource_to_learn_tinkercad/
Signup for TinkerCAD (TinkerCAD has Electronics simulator too.)
TinkerCAD - Sign Up - π° Slide Presentation
The TinkerCAD site has a number of quick tutorials to "Learn The Moves". Spend some time to work through all these Tutorials.Β Each of the first few, should only take a few minutes.
TinkerCAD Learn The Moves - π οΈ LAB Activity
The TinkerCAD site has a number of quick tutorials to "Learn The Moves". This one is to make a luggage tag.Β You could also check out my Luggage tag design too.
TinkerCAD "Luggage Tag" - π οΈ LAB Activity
Mr Burnham's Luggage Tag Design - π οΈ LAB Activity
The TinkerCAD site has a number of quick tutorials to "Learn The Moves". Spend some time to work through all these Tutorials.Β Each of the first few, should only take a few minutes.
TinkerCAD - Sign Up - π° Slide Presentation
TinkerCAD Learn The Moves - π οΈ LAB Activity
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Reference Text Book - Basic College Mathematics with Early Integers 4th edition - Elayn Martin-Gay - University of New Orleans - Pearson
Reference Sites -Β
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This is an β Establishing Assignment (Minimum Standard)Β - "Everyone Do" Assignment
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Quiz - verify that they are all listed as a "Formative", "Mastery Path", or "Summative"Β
π Formative Quiz - These are quizzes that the students can take a few times. I have them either set for unlimited times, or 3-5 times, where the final score is their average. The idea is that these Formative Quizzes are designed for students to learn and master a skill.Β while I want them to ger 100%, and when it's set to unlimited tries, the student should get 100% eventually.Β When the quiz is set to 3-5 tries with an average, then they should be prepared and should take the quiz seriously. I set the quiz to not show the right answer, but I do let them see their wrong answer.Β I also put the explanation of the right and wrong answer in the right and wrong answer prompt for each question.Β That way they can see why they got the answer wrong and learn from that experience.Β Β
8.1.0.3.2.4 - Python - Ch 3 - Functions - Quiz #2 -Built-In Functions - π Formative Quiz
π Quiz -π Mastery Path - These Mastery path quizzes are to be presented after the student has had a chance to do some labs and some Formative quizzes. Β The goal is to let students have 2 chances to take this quiz, and take the average of the 2 attempts.Β Based on the average, they will be presented with a Canvas Mastery Path, where they will have an option for take additional quiz and assignments to help with remediation.Β This will get them ready to take the Summative Quizzes.
8.1.0.3.3.1 -Β Python - Ch 3 - Functions - Mastery Quiz #1 - π Quiz -π Mastery Path
π Summative Quiz -βοΈ Skills Mastery Check - These Mastery path quizzes are to be presented after the student has had a chance to do some labs and some Formative quizzes. Β The goal is to let students have 2 chances to take this quiz, and take the average of the 2 attempts. That will be their final module/subject topic grade.
8.1.0.3.3.1 -Β Python - Ch 3 - Functions - Skills Mastery Check Quiz #1 - π Summative Quiz -βοΈ Skills Mastery Check
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