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Posts Tagged ‘maker education

Toy Take Apart and Repurposing

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Toy take apart and hacking is a high engagement activity that works for kids of all ages, including adults who haven’t lost their sense of kid, and both genders. I have done it multiple times during my summer maker camp for elementary level kids, with my gifted elementary students, and at conferences as part of teacher professional development.

Here is a description of this activity from the tinkering studio at the Exploratorium:

Do you ever wonder what’s inside your toys? You’ll make some exciting and surprising discoveries about their inner parts when you don some safety goggles and get started dissecting your old stuffed animal, remote controlled car, or singing Santa. Use screwdrivers, seam rippers, scissors, and saws to remove your toy’s insides. Check out the mechanisms, circuit boards, computer chips, lights, and wires you find inside. Once you’ve fully dissected your toy, you can use the toy’s parts, your tools, and your imagination to create a new original plaything.  (https://tinkering.exploratorium.edu/toy-take-apart)

Standards Addressed

Toy take apart and hacking addresses a lot of cross curricular standards including:

  • Ask questions, make observations, and gather information about a situation people want to change to define a simple problem that can be solved through the development of a new or improved object or tool. (NGSS)
  • Develop a simple sketch, drawing, or physical model to illustrate how the shape of an object helps it function as needed to solve a given problem. (NGSS)
  • Define a simple design problem reflecting a need or a want that includes specified criteria for success and constraints on materials, time, or cost. (NGSS)
  • Report on a topic or text, tell a story, or recount an experience in an organized manner, using appropriate facts and relevant, descriptive details to support main ideas or themes; speak clearly at an understandable pace. (ELA CCSS)
  • Write informative/explanatory texts to examine a topic and convey ideas and information clearly. (ELA CCSS)
  • Write narratives to develop real or imagined experiences or events using effective technique, descriptive details, and clear event sequences. (ELA CCSS)
  • Elaborate, refine, analyze and evaluate their own ideas in order to improve and maximize creative efforts. (21st Century Skills)
  • Act on creative ideas to make a tangible and useful contribution to the field in which the innovation will occur. (21st Century Skills)
  • Demonstrate originality and inventiveness in work and understand the real world limits to adopting new ideas. (21st Century Skills)
  • View failure as an opportunity to learn; understand that creativity and innovation is a long-term, cyclical process of small successes and frequent mistakes. (21st Century Skills)
  • Solve different kinds of non-familiar problems in both conventional and innovative ways. (21st Century Skills)

Frontloading and Framing the Experience

(For background information about this idea, see Don’t Leave Learning Up to Chance: Framing and Reflection)

To help frontload and frame this activity, participants are given the following scenario:

You have been hired to create the newest, most exciting handheld game to hit the market in years. You can decide the type of game, the population for whom you want to design it for – age range and gender, the goal of the game, the rules, any functions. The sky is the limit but there is one caveat – you need to recycle parts from old handheld games, ones made a decade or two ago, to create your prototype. Here are some questions to consider as you make your prototype –

  • How will you decide what to make?
  • What factors do you need to consider as you make your game?
  • What actions can you take if you get stuck using the tools? Coming up with ideas?
  • How can you ask for help as well as support others during the toy take apart and hacking?

How-To

I like to use the older handheld games as they contain lots of interesting parts and can be bought fairly cheaply in lots through ebay. First, the toys are passed around so participants can examine and learn about them.

Participants select the toy they want to take apart. Using the various screw drivers, scissors, wire cutters, and hammers that have been laid out on a work table, the toys are taken apart as much as they can be taken apart.

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After the participants fully take apart their toys, they are asked to create a new game out of their parts and parts discarded by the other participants. I use hot glue guns but soldering of parts can be done, too.

The criteria that I give to the participants for their game creation includes:

  • The creation must be a new game – one that the participant hasn’t heard of nor played.
  • The parts need to be used creatively – not the same way they were used in the original game.
  • The specifications for the game need to be developed and written as a poster are –
    • Name of the Game
    • Age Level Recommendations
    • The Rules
    • How to Play

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Participants then share their designs with the rest of the group.

Reflection

(For background information about this idea, see Don’t Leave Learning Up to Chance: Framing and Reflection)

After finishing their projects and sharing, participants can reflect on their experiences through:

Through a conversation with other participants; a presentation using Google Slides, Prezi, or Adobe Spark; or a blog post – your choice, address the following questions –

  • Describe the game you made – why did you make that type of game?
  • What changes did you make to your original design? Why?
  • Did you get stuck at any point during the activity? Taking apart the toy? Coming up with a design? Using the tools? Making your game? If so, how did you get unstuck?
  • What will you do the same/differently if you do a similar activity in the future?

More Information

For more information on toy take apart and hacking,  visit http://www.makereducation.com/toy-take-apart.html.

A slideshow of participant engagement in this activity . . .

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Written by Jackie Gerstein, Ed.D.

April 8, 2017 at 8:13 pm

A Framework for Implementing Maker Education Activities Presentation

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I am facilitating two mini-workshops at ASCD Empower 17 and the 2017 ASCD Conference on Teaching Excellence on using a framework for implementating maker education activities. The description for my session is:

Providing a framework for maker activities helps ensure that their use is intentional and that meaningful learning is extracted from these experiences. The educator, using such a framework, becomes proactive in framing or frontloading the maker experiences and in debriefing or processing them to increase the chances that learning occurs. Framing or frontloading is making clear the purpose of an activity prior to actually doing it; it helps to set purpose and intention for the activity. Reflecting on the maker activities can occur through a variety of methods: talking, writing, sketching, and using technology such as Web 2.0 tools and social media. During this interactive presentation, participants will experience this framework through maker activity that is introduced through framing or frontloading and then by directly using reflection techniques upon completion of the activity.

The slides for my session:

Written by Jackie Gerstein, Ed.D.

March 24, 2017 at 4:46 pm

Teacher PD: Purposeful Tinkering and Application

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As a preface to this post, my belief is that deep learning does not occur through sit and get. Deep learning occurs through experiential, authentic, interactive, collaborative instructional processes.  If deep learning is desired for teacher professional development, then it should reflect best practices for teaching and learning.

Professional learning must focus on creating safe and productive spaces for teachers to begin planning and experimenting with the concepts that have been shared. Too often, facilitation centers on giving strategies to teachers rather than coaching them on how to deliver the strategies to students. As a result, teachers leave the session with a toolbox of ideas that are never implemented. Instead, more professional learning time should be spent helping teachers plan, develop materials, and practice delivering the strategies with colleague support. (http://inservice.ascd.org/personalized-professional-development-moving-from-sit-and-get-to-stand-and-deliver/)

When I design teacher PD-related workshops, I am guided by the following principles:

  1. Teachers need time to tinker, play, and experiment with instructional materials and resources especially with new forms of teaching/learning technologies.
  2. For skills development, such as using new technologies, scaffolding and increasing complexity should be a strong component of the PD process.
  3. Teachers need to be offered lots of instructional suggestions and resources so they can tailor their PD learning to their own teaching environments.
  4. Intentional and active reflection and goal setting should be included to increase the chances of transfer of learning.

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Tinkering With Instructional Materials

Teachers and librarians, like their students, need hands-on experience with tools and with playing to learn as that helps them build creative confidence. (https://www.edutopia.org/blog/crafting-professional-development-maker-educators-colleen-graves)

Teachers, during PD, should be provided with time, resources, and materials with which to play. It sets the expectation that they will be active agents of their own learning. It gives them the message it is okay to play and experiment with the materials; that tinkering is often needed as a part of learning new skills.

Scaffolding and Introducing Complexity

As teachers, we have come to learn over the years that we should never expect our students to fully understand a new idea without some form of structured support framework, or scaffolding as the current buzzword defines it.  The same, of course, should be the case in supporting learning for our fellow teachers. (http://mgleeson.edublogs.org/2012/03/10/when-it-comes-to-technology-teachers-need-as-much-scaffolding-as-students/)

Once teachers get familiar with instructional materials and resources through tinkering, they should be guided through a series of skills that are increasingly complex; that honor the process of scaffolding.  As with tinkering, this should be a hands-on process where teachers can try out these skills with facilitator and colleague support and guidance. As confidence is built through success with basic skills and strategies, more complex skills and strategies will be more welcomed by teachers.

Lots of Instructional Strategies and Resources

Even with fairly homogeneous groups of teachers, their teaching and learning needs can be vastly different. They often teach different groups of students, different grades, different content areas. They often have different backgrounds, years of experience, and personal and professional interests. As such, they should be provided with lots of instructional strategies and resources to help them make direct connections to their own teaching environments. Given the plethora and free resources that can be found online, curated aggregates of resources can be provided to the teachers. Time should be allotted during the PD training for them to examine and discuss these resources with their colleagues.

Transfer of Learning Through Reflection and Goal Setting

Reflection is essential for learning. In order to “make meaning” of an experience, the learner must have an opportunity to reflect on or process the experience. To help ensure that program participants transfer learning and training experiences into real-world applications, we must be intentional about both engaging the learners and creating opportunity for meaningful reflection. (https://www.e-volunteerism.com/volume-xvi-issue-1-october-january-2016/training-designs/enhance_learning)

Facilitators of teacher professional development need to be more intentional to include specific strategies to help insure that learning is transferred in teachers’ educational environments. Reflection and goal setting, two powerful transfer of learning strategies, should be built into teacher professional development.

A Recent Example

Because of on my request, my district gifted education supervisor purchased 3 sets/3 dozen Spheros. As a follow-up, he asked me to facilitate a teacher professional development workshop on their use.

The schedule for this afternoon workshop was:

  1. Short Introductory video about Sphero in schools: Gain Attention and Provide a Context
  2. Orienting and Simple Driving the Sphero: Tinkering
  3. Using the Draw Program: Tinkering
  4. Video Tutorial and Practice of Simple Block Programming: Increasing Complexity
  5. Build a Project-Chariot or Tug Boat: Increasing Complexity and Instructional Resources
  6. Review Curricula for Use in the Classroom: Instructional Resources and Transfer of Learning
  7. Final Reflections – Sharing about one’s own processes and possible applications in one’s own classroom: Transfer of Learning Through Reflection and Goal Setting
  8. Email Exchange – for sharing how the use of Spheros are being implemented in the classroom: Transfer of Learning

The slide presentation used and shared with this group of teachers:


Workshop photos showing teacher engagement:

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Robotics and Computer Science for Elementary Level Learners

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I absolutely love all of the new robotics toys that have been coming out for elementary age learners.  I have been using them for my summer maker camp, with my gifted education classes, and for my upcoming Saturday morning program. One of my gifted girls noted, “Where do all of these robots come from?” I laughed and told her, “It’s actually has become one of my passions. Collecting them has become a major hobby of mine.”

I usually use them for an hour per week with my two groups of gifted learners.  I am an advocate of student-centric learning and giving them choices as to which instructional activities they would like to engage. For their robotics hour each week, I am giving them the following choices with their goal of using five of the robotics to complete five of the tasks provided.

My robotics-type devices include:

  • Sphero
  • Ollie
  • Dash and Dot
  • littleBits: Gizmos and Gadgets; Arduino
  • Ozobot
  • Quirkbot
  • Jimu Robot
  • Finch Robot
  • Makey-Makey
  • Osmo Coding
  • micro:bit
  • Adafruit Circuit Playground
  • Let’s Start Coding
  • Bloxels

Binary Bracelets: Introduction to Coding

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The craft activity involves letting the students make a stylish necklace for themselves, where their names are spelled out in binary using black and white beads. See https://bycommonconsent.com/2014/10/19/activity-day-girls-craft-idea-binary-code-necklace/ for further directions.


Board Games to Teach Coding: Introduction

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Several board games that teach children computer coding concepts have been brought out recently. They make a good complement to online learning games and enable techie kids to have some fun family time away from a computer screen. http://www.techagekids.com/2015/11/board-games-teach-coding-kids-teens.html

The Task:

After learning a little bit about Robot Turtles, Code Monkey Island, and CodeMasters, play one or two of them.


Breakout Edu’s Caught in the Code: Introduction to Coding

We are caught in an infinite loop! Someone has re-written our classroom code and we are stuck. We will keep having the same day over and over unless we can find the correct code to de-bug the system. The correct code has been locked in the Breakout EDU box – once we figure out the combos, we will can escape the loop and move forward. http://www.breakoutedu.com/caught-in-the-code

The Task:

The teacher will walk the group through this task.


Code.org: Introduction to Coding

Code.org® is a non-profit dedicated to expanding access to computer science, and increasing participation by women and underrepresented minorities. Our vision is that every student in every school should have the opportunity to learn computer science, just like biology, chemistry or algebra. https://code.org/about

The Task:

As an introduction to robotics and computer science, do a few hours of tutorials via Code.org. The site, itself, offers a number of different tutorials, within their Hour of Code page – https://code.org/learn. Feel free to do the ones that look interesting to you.


CoSpaces: Introduction to Coding

The Task:

After creating an account at CoSpaces using your school gmail, create a scene and use their Block coding to animate the people and objects in your scene. How-to directions can be found at https://youtu.be/0x-jdrwE7Ng.


Sphero and Ollie

“The app enabled ball that does it all” – that’s the tag line for Sphero 2.0. Sphero is robotic ball that connects to your smartphone or tablets over Bluetooth.  It has built in multi-color LEDs that gives it light effect in combination of colors. It is waterproof, too. The free SPRK education program (which can be used with both Sphero and Ollie) has series of lab exercises to teach kids programming and robotics concepts. http://getstemgo.com/toys/sphero-and-ollie-robots-all-you-need-to-know-review/

The Task: The Maze

Program the Sphero or Ollie with the SPRK Lightning Lab app to navigate your own original maze made out of obstacles and materials in the learning environment. To complete this challenge, you must gather data about the best route through a maze and figure out how to build a program so Sphero can successfully navigate through the mayhem. More about this lesson can be found at https://sprk.sphero.com/cwists/preview/177x.

The Task: Painting with Sphero

Using a large piece of paper, different types of finger paints, the Sphero with the nobby cover, and the Lightening SPRK app, create a Jackson Pollack type painting. The full lesson plan can be found here – https://sprk.sphero.com/cwists/preview/152-painting-with-spherox

A “cleaner” alternative is to do a light painting with the Sphero using a long exposure app – see https://sprk.sphero.com/cwists/preview/78-light-paintingx

The Task: Battlebots

With a partner, create a Battlebot out of the Sphero or Ollie, cardboard, Popsicle sticks, and skewers. Challenge another team or two to a Battle. Last team with a balloon intact wins.

More lessons can be found at https://sprk.sphero.com/cwists/category


Dash and Dot

Dash & Dot are real robots that teach kids to code while they play. Using free apps and a compatible tablet or smartphone, kids learn to code while they make these robots sing, dance and navigate all around the house. Sensors on the robot mean they react to the environment around them. https://www.makewonder.com/

The Task: Rolling the Code

Using the Blockly app, complete the Dash and Dot Robots: Rolling for Code activity as described in http://www.thedigitalscoop.com/the_digital_scoop/2015/01/dash-and-dot-rolling-for-code.html

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The Task: The Xylophone

Using the Xylophone and Xylo app, program Dash to play at least three songs.

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littleBits Gizmos and Gadgets

Explore the possibilities of inventing with the Gizmos & Gadgets Kit. The Bits components snap together with magnets, for quick alterations on the fly. Chock full of motors, wheels, lights, servos, and more. The kit boasts 13 littleBits and instructions for 16 inventions. https://www.microsoftstore.com/store/msusa/en_US/pdp/littleBits-Gizmos-amp-Gadgets-Kit-2nd-Edition/productID.5064612700

The Task:

Complete two of the projects from the invention guide, from the Invention App, and/or make your own invention. Download the Invention Guide – littlebits-ggk2-invention-guide.


Ozobot

Control Ozobot with colors! Draw OzoCode color codes on paper or a tablet and Ozobot uses optical sensors to respond—spinning, speeding up and more at your command. It comes with an OzoCode chart and over 20 games and activities. Color coding masters can move on with free Ozobot apps and the OzoBlockly editor, which introduces block-based programming. http://ozobot.com/

The Task:

After playing with the Ozobot color based coding, learn how to use Ozoblocky – http://ozoblockly.com/.  Teach two other learners how to use it.


Quirkbot

Quirkbot is a microcontroller toy that anyone can program. It is compatible with the open construction toy Strawbees and can be used along with readily available materials like regular drinking straws, LEDs, and hobby servos (motors) to create a wide variety of hackable toys. Let your creations express themselves and interact with their environment through sound, light and motion. https://www.kickstarter.com/projects/1687812426/quirkbot-make-your-own-robots-with-drinking-straws

The Task:

Go through the tutorials found at https://code.quirkbot.com/tutorials/getting-started/ and then build at least one of the Quirkbots found at https://www.quirkbot.com/build. Teacher’s guide can be downloaded: quirkbot-educators-guide-v0-9


Lego WeDo

The LEGO® Education WeDo 1.0 is an easy-to-use concept that introduces young students to robotics. Students will be able to build LEGO models featuring working motors and sensors; program their models; and explore a series of cross-curricular, theme-based activities while developing their skills in science, technology, engineering, and mathematics as well as language, literacy, and social studies.  https://education.lego.com/en-us/products/lego-education-wedo-construction-set/9580

The Task:

Build one or more of the robots. Use Scratch to program them. These Scratch examples can help: https://scratch.mit.edu/studios/1302388/.


Jimu Robot

Create a humanoid robot  with UBTECH’s Jimu Robot Meebot robot kit—and program it with the free Jimu Robot app on your iPhone or iPad. The kit’s six robotic servo motors give your robot smooth, life-like movement. Use the easy-to-follow 3D animated instructions on the Jimu Robot free app to build your MeeBot. Then employ the app’s intuitive programming function to devise an endless sequence of actions for him. http://www.apple.com/shop/product/HK962VC/A/ubtech-jimu-robot-meebot-kit

The Task:

Make a Jimu robot using the Jimu app.


Finch Robot

The Finch is a small robot designed to inspire and delight students learning computer science by providing them a tangible and physical representation of their code.  The Finch has support for over a dozen programming languages, including environments appropriate for students as young as five years old!  The Finch was developed to catalyze a wide range of computer science learning experiences, from an entry into the basics of computational thinking all the way to writing richly interactive programs. http://finchrobot.com/.

The Task:

Use Scratch Programming to, first, do the basics found at http://www.finchrobot.com/teaching/scratch-finch-basics, and second, to do one of the projects found at http://www.finchrobot.com/teaching/scratch.


Makey-Makey

Using the MaKey MaKey you can make anything into a key just by connecting a few alligator clips. The MaKey MaKey is an invention kit that tricks your computer into thinking that almost anything is a keyboard. This allows you to hook up all kinds of fun things as an input. For example, play Mario with a Play-Doh keyboard, or piano with fruit!  https://www.sparkfun.com/products/11511

The Task: Hacked Poetry

Program the Makey-Makey with Scratch to read a poem – attach Makey Makey to four drawings made by pencil that represent that poem. Idea for this came from Makey Makey Hacked Poetry Month Part I.

The Task: A Small Group Project

With one or two of your classmates, do one of the projects found at http://makeymakey.com/guides/


Osmo Coding

Osmo Coding uses hands-on physical blocks to control Awbie, a playful character who loves delicious strawberries. Each block is a coding command that directs Awbie on a wondrous tree-shaking, strawberry-munching adventure. https://playosmo.com/en/coding/

The Task:

Play the game for 45 minutes and use each of the types of coding blocks during that time period.


littleBits Arduino (advanced)

The Arduino Bit is a tiny computer called a microcontroller. It brings the power of programing to your littleBits circuits, allowing you to create complex sequences of actions and explore new levels of logic and timing. https://littlebits.cc/bits/w6-arduino

The Task:

For this advanced option, watch the getting started video at https://www.youtube.com/watch?v=FXQ9d3qJt3Q and then do one or more of the tasks found at http://littlebits.cc/inventions/explore?q=arduino&page=1&per_page=9.


micro:bit (advanced)

You can use your BBC micro:bit for all sorts of creations, from robots to musical instruments. This little device has a lot of features, like 25 red LED lights that can flash messages. There are two programmable buttons that can be used to control games. Your BBC micro:bit can detect motion and tell you which direction you’re heading in, and it can use a low energy Bluetooth connection to interact with other devices and the Interne. http://microbit.org/about/

The Task:

For this advanced option, do two of the projects featured on http://www.makereducation.com/microbit.html


Adafruit Circuit Playground (advanced)

Circuit Playground features an ATmega32u4 micro-processor with contains within it: 10 x mini NeoPixels – each one can display any rainbow color; Motion sensor; Temperature sensor; Light sensor; Sound sensor (MEMS microphone); Mini speaker (magnetic buzzer); 2 x Push buttons – left and right; Slide switch; 8 x alligator-clip friendly input/output pins. You can power and program it from USB. Program your code into it, then take it on the go. https://learn.adafruit.com/introducing-circuit-playground/overview

The Task:

For this advanced option, do one of the projects featured on https://learn.adafruit.com/category/circuit-playground.


Let’s Start Coding Base Kit (advanced)

We’ve made it easy to learn the fundamentals of all coding languages, like methods, functions, and statements.  Your code will control electronic lights, speakers, buttons, sensors, screens, and more. Follow 14 step-by-step lessons to get the basics down. Tinker with already-working programs. https://www.letsstartcoding.com/

The Task:

For this advanced option, start at https://www.letsstartcoding.com/start and then complete 6 lessons found at https://www.letsstartcoding.com/learn


Bloxels

Bloxels® is an innovative video game development platform that allows you to create your own video games. With easy-to-use physical and digital tools, you decide what the game looks like and configure how it is played. You tell the story of the characters and design their looks. You create the obstacles and the power-ups. http://kids.bloxelsbuilder.com/

Bloxels really isn’t a robotics nor coding platform, but because of the interactivity of physical objects with technology, I include it as part of my robotics kit.

The Task:

Watch the tutorials found at http://kids.bloxelsbuilder.com/full-tutorial and build a game that uses five rooms where each of those rooms include characters, backgrounds, hazards, and powerups.

Written by Jackie Gerstein, Ed.D.

January 2, 2017 at 11:41 pm

Simple and Rube Goldberg Machines: A Maker Education, STEAM Lesson

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Recently I facilitated a simple-machines-leading-into-Rube-Goldberg-machines lesson with my gifted elementary students.

As I’ve discussed in past blog posts, I use several criteria to guide my lesson design:

  • Instructional challenges are hands-on and naturally engaging for learners.
  • There is a game-like atmosphere. There are elements of play, leveling up, and a sense of mastery or achievement during the instructional activities.
  • The challenges are designed to be novel and create excitement and joy for learners.
  • There is a healthy competition where the kids have to compete against one another.
  • Learners don’t need to be graded about their performances as built-in consequences are natural.
  • There is a natural building of social emotional skills – tolerance for frustration, expression of needs, working as a team.
  • Lessons are interdisciplinary (like life) where multiple, cross-curricular content areas are integrated into the instructional activities.
  • Lessons are designed to get learners interested in and excited about a broad  array of topics especially in the areas of science, engineering, math, language arts, and the arts.

The lesson activities and sequence went as follows . . .

Simple Machines

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  • To conclude the simple machines component, learners were taught about Haikus and asked to write Haikus about simple machines to be posted on their Kidblogs.

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Rube Goldberg Machines

  • Learners were shown several Rube Goldberg machines posted on Youtube.

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  • Learners were given a worksheet that contained several examples of Rube Goldberg Machines and asked to sketch their own cartoon versions.

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Written by Jackie Gerstein, Ed.D.

November 29, 2016 at 5:07 am

Halloween Wars: An Interdisciplinary Lesson with a STEM, STEAM, Maker Education Focus

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For Halloween 2016, I did a version of Halloween Wars (a Food Network show) with my two classes of gifted elementary learners. I am sharing this lesson through my blog post as it reinforces how I approach lesson planning and teaching.

Background Information

Principles that drive my instructional approach. regardless of theme, include:

  • Instructional challenges are hands-on and naturally engaging for learners.
  • There is a game-like atmosphere. There are elements of play, leveling up, and a sense of mastery or achievement during the instructional activities.
  • The challenges are designed to be novel and create excitement and joy for learners.
  • There is a healthy competition where the kids have to compete against one another.
  • Learners don’t need to be graded about their performances as built-in consequences are natural.
  • There is a natural building of social emotional skills – tolerance for frustration, expression of needs, working as a team.
  • Lessons are interdisciplinary (like life) where multiple, cross-curricular content areas are integrated into the instructional activities.

These have been further discussed in A Model of Good Teaching?

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Halloween Wars Lesson

For this Halloween Wars lesson, the goals included the following:

  • To work in a small group to create a Halloween scene using food items, cooked goods, LED lights, and miscellaneous materials.
  • To work as a small group to craft a story about their scene.
  • To introduce and reinforce ideas, concepts, and skills associated with maker education, STEM, and STEM.

Standards addressed during this lesson included:

  • Generate and conceptualize artistic ideas and work. (National Core Arts Standards)
  • Exercise flexibility and willingness to be helpful in making necessary compromises to accomplish a common goal; and assume shared responsibility for collaborative work, and value the individual contributions made by each team member. (21st Century Skills)
  • Apply scientific ideas to design, test,and refine a device that converts energy from one form to another. (Next Generation Science Standards)
  • Solve problems involving measurement and conversion of measurements. (CCSS.Math)
  • Write narratives to develop real or imagined experiences or events using effective technique, descriptive details, and clear event sequences. (CCSS.ELA-Literacy.W.5.3)
  • Publish or present content that customizes the message and medium for their intended audiences. (ISTE NETS for Students)

Time Frame: 3 to 4 hours

Procedures:

  • Learners were introduced to the lesson through the following presentation –

  • Learners were split into groups of 3 or 4 members, shown their materials, asked to come up with a team name, and sketch their designs.

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  • In their small groups, learners needed to work together cooperatively to make their display scenes using the materials provided.

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  • Learners made sugar cookies using a recipe projected on the Smartboard. They were asked to cut the recipe in half reinforcing math skills.

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  • LED lights, which learners connected to coin batteries, were placed decorated ping-pong balls and their carved pumpkin.

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  • Finally, learners, in their small groups, worked together on a shared Google doc to compose their story. The story was displayed on the Smartboard and read aloud. One member made editing changes to grammar and spelling based on suggestions by their classmates. (This strategy is further discussed in Teaching Grammar in Context.) Here is one student group’s example:

Written by Jackie Gerstein, Ed.D.

October 31, 2016 at 12:11 am

A Fuller Framework for Making in Maker Education

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Background Information

I recently learned, for the first time, about Aristotle’s belief that there were three basic activities of humans: theoria (thinking), poiesis (making), and praxis (doing). Corresponding to these activities were three types of knowledge: theoretical, the end goal being truth; poietical, the end goal being production; and practical, the end goal being action (https://en.wikipedia.org/wiki/Praxis_(process)).

The Greek theoria, from which the English word “theory” is derived, meant “contemplation, speculation, a looking at, things looked at”.  The word theoria is derived from a verb meaning to look, or to see: for the Greeks, knowing was a kind of seeing, a sort of intellectual seeing (https://en.wikipedia.org/wiki/Theoria).

Poïesis is etymologically derived from the ancient Greek term ποιέω, which means “to make” (https://en.wikipedia.org/wiki/Poiesis).

Praxis (From ancient Greek: πρᾶξις) is the process by which a theory, lesson, or skill is enacted, embodied, or realized (https://en.wikipedia.org/wiki/Praxis_(process)). “Praxis” may also refer to the act of engaging, applying, exercising, realizing, or practicing ideas. Praxis may be described as a form of critical thinking and comprises the combination of reflection and action. Paulo Freire defines praxis “reflection and action directed at the structures to be transformed.”(https://en.wikipedia.org/wiki/Praxis_(process))

Implementing a Broader Framework of Making in Maker Education

All of this led me to think about how this would translate into a full spectrum of making in the context of maker educator. Having such a framework would help insure that learning from the making experience is more robust, not left up to chance. I believe a fuller spectrum or framework would including the following elements:

  • Play, Tinkering, Experimentation – This is uncensored, boundaryless, whimsical making. It can be considered free play.  This, in my mind, is the first part of of Poïesis which translated from Greek “to make”.  How this translates into practice is by providing learners with lots of making materials; and telling them to just dive in and play hard with those materials.
  • Framing or Frontloading the Making Experience – This is the introducing the making experience for more mindful and intentional making. It helps both the educators and learners to set purpose and intention for the making activity prior to actually doing it. This is discussed in Framing and Frontloading Maker Activities where I go in more detail how to frontload or frame the maker activities:
    • Using and Reviewing Essential Questions
    • Using Scenarios
    • Specifying Standards
    • Asking Questions Related To Personal Skills
    • Asking Questions to Help with Scaffolding and Sequencing the Activities
    • Asking Questions Related To Using Peer Support-Working Collaboratively
  • Mindful and Intentional Making – Once there is a familiarity with the making materials and processes,  making can become more mindful and intentional.This is the second part of poisis or the making process. Making becomes more goal-oriented, focused, and more results or product oriented (although process is still important).
  • Observing and Reflecting Upon Results – This is the theoria or thinking part of the process. After making, it is when makers step back away from their making to observe and reflect on their processes and results.”Being able to reflect is a skill to be learned, a habit to develop. Reflection requires metacognition (thinking about your thinking), articulation of that thinking and the ability to make connections (past, present, future, outliers, relevant information, etc.)” (Amplifying Reflection).
  • Critical Awareness and Analysis –  This is the praxis, the critical thinking component that combines reflection and action. It takes reflection to a deeper level by dissecting the making process to analyze what worked and didn’t work which, in turn, will inform future makes. This critical analysis should directly and strongly influence future making experiences – the action part.
  • Sharing to Elicit Broader Connections and Change – Given today’s ease of sharing via the Internet and social media, the action part of praxis has been expanded, in this framework, to include sharing out one’s makes, observations, reflections, and critical analyses to a broader audience. This can occur by writing about the making process, and/or by doing a photo essay, video, podcast to share via social media. By doing so, others can benefit from one’s make.

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Written by Jackie Gerstein, Ed.D.

October 23, 2016 at 6:19 pm

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