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"A paper circuit is a low-voltage electrical circuit that is created on paper or cardboard using conductive copper tape, LEDs and a power source such as a coin-cell battery.  Creating paper circuits is a good way to teach the basics of electricity and how circuits function.   In addition to being educational, they can also be a fun makerspace project that helps to bring artwork and paper craft to life.  By adding sensors, buzzers and motors to your circuit, you can also add another dimension of interactivity.  These simple projects are great for all ages and all makerspaces."

"I'm not sure of the way most people learn the complicated process of programming Arduino projects because I only know my own convoluted journey. I started the hard way following projects from the Arduino Starter Kit by building photo sensor theremins and electronic magic 8 balls. Here is one of my first Arduino projects I created at a class at the Denton Public Library. (The tweet below is a flashback to the Coding Bonanza I led at Lamar Library in 2014.) I quickly found that I wanted to do things OTHER than what the projects outlined, but I just didn't have the code knowledge to hack projects and make them my own. I continued following projects and attempting to tinker with code. For someone with absolutely no background in coding, it was quite an arduous journey. Imagine my surprise when I found out about the ScratchX extension from Kreg Hanning at SXSWedu in 2015!"

"If you've ever wished your childhood Lego creations could come to life, your dreams are now closer to reality. Lego has just unveiled a new subbrand called Boost which promises to do just that. The base set contains a combination of sensors, motors and a unique companion app that teaches kids how to code so that they can program their new robot friends. Lego's Mindstorms could let you do this too, but that's a decidedly more advanced system aimed at young adults. Boost, on the other hand, is designed for kids ages seven and up. The Lego Boost base starter set is priced at $160 and will be available later this year."

"Root looks like a smoke detector but is actually a sophisticated robot. A magnetic surface, wheels, and an impressive arsenal of sensors allow it to navigate a classroom white board. But Root isn't actually programmed to do anything. Its tasks and functionality hinge on a child's imagination. To operate - Root needs instructions, a line of code. Zivthan Dubrovsky of Harvard's Wyss Institute recalls testing out Root with kids for the first time. He asked them this: "Can you make a text based java script line follower? They go 'no that's hard, can't do that', but we can put level one in front of them and they can do it in minutes." Level one introduces kids to principles of programming using an interface of simple instruction and pictures. As they become more adept, they jump to levels 2 and 3, at which point writing computer code becomes second nature, according to Dubrovsky."

"In our innovative classrooms across America, students are using technology in ways that were unheard of just ten short years ago. In a small elementary school in Northwest Baltimore, students use their Makerspace to create 3D printed materials, learn to code and engage in other making activities. In another school in Philadelphia, a student fulfills his senior capstone project requirement by creating a "Smart Beehive" that uses sensors and a camera to track the health of a bee colony. While there are some schools of education that prepare pre-service teachers to excel in these types of technology-rich environments on their first day of in-service teaching, there is still room for growth in our teacher preparation programs as a whole, particularly as more schools shift towards digital learning. "Education-Creative Commons" by NEC Corporation of America licensed under CC BY 2.0" This is why the 2016 National Educational Technology Plan (NETP) asks us to refine educational technology's place in teacher preparation programs. It makes the bold statement that "no new teacher exiting a preparation program should require remediation by his or her hiring district."¹"

"The Health app, loaded onto all iPhones with iOS 8 and sitting prominently on the home screen, is clearly ambitious, but at the moment the majority of it's intended abilities remain inactive or useless (at least without additional third party sensors, which don't seem to exist yet). But for those with a new iPhone, the Health app can be useful right now, because it has the ability to track your steps like a pedometer, as well as flights of stairs climbed, and your walking / running distance. "

"As tablets move from novelty items to staples in the classroom, teachers are finding new ways to make them more than just another screen for students to look at. One way to make the devices more interactive and collaborative is to extend their reach by connecting them with external sensors or robots. According to Sam Patterson, a technology integration specialist at Gideon Hausner Jewish Day School, a K-8 school in Palo Alto, CA, "What we are seeing is technology becoming more and more transparent." Years ago, if you had a computer for every student in the class it would look like a computer lab. And then each student had a laptop, and it was a classroom full of screens, he noted. "Now students have the ability to connect to other things in the room, so that when we are collecting data we can do it directly and do observations," he said. "It is amazing that in a seventh-grade science class, you can import data and it is in a spreadsheet already. You can start to work with that data without having to teach the students how to build a spreadsheet.""

"Makers have long been known as hobbyists or tinkers. However, with increased access to professional-grade tools, the maker movement is transforming business as usual. Through collaboration and connectivity, makers are inspiring innovation on a daily basis with the creation of smart gadgets, machines, robots and wearables. This new way of doing business is a shift from the historic model where innovation was monopolized by multi-million-dollar companies. Makers and their peers have the opportunity to build cutting-edge products, test them in collaborative workspaces and share their inventions online in order to bring "the next big thing" to market for mass consumption. It is through this connectivity that makers are able to contribute to the Internet of Things - a world of interconnected devices that use sensors to interact with the people, the environment and other devices around them. This smarter, connected way of life is the future of technology worldwide."

A PicoCricket is a tiny computer that can make things spin, light up, and play music. You can plug lights, motors, sensors, and other devices into a PicoCricket, then program them to react, interact, and communicate

"Two new tiny wearable motion sensors are on the loose, backed by Web sites that graph the collected data on daily activity for your motivational pleasure."

"When smartphones first became popular, the struggle was to shrink Internet Explorer to the size of a playing card. The internet browser was the de facto app installed on every computer-it allowed you to browse the web. For many, the web browser is a computer. (See Google Chromebooks.) It quickly became clear that squeezing desktop actions on handheld technology was backwards. Mobile-first thinking changed things. Facebook became mobile-first-which meant that it's designed to not just be accessed on your phone, but work better on your phone. Websites are often now responsive, scaling to the size of your screen. But more importantly, the software and the hardware are increasingly parallel, with apps working together-iOS's Neato feeding Evernote, for example, location-based alerts, smarter notifications, simpler multitasking, improved voice recognition, fingerprint sensors, predictive notifications based on usage, and more. Today, mobile technology is awful for ambitious word processing, but for everything else it's pretty incredible. Have you seen apps like Brainfeed? A library of engaging content!"

"If you visit Lighthouse Community Charter classrooms this fall, you'll see kindergarteners using power tools, second graders doing logo programming, third graders building circuit blocks, sixth graders programming microcontrollers to respond to sensor inputs, eighth graders using hot-glue guns, and high school students building chairs, building and programming robots, and using a laser to cut out pieces of wood for prototypes. As we look across our school, we're pretty excited by two things. First, we're pleased to see making (broadly defined as using your hands, heart, and mind to create or improve things) happening as part of our students' core classroom experiences. And second, we're thrilled that our students - poor, urban students of color - have access to making, especially because our educational system so often provides them with experiences filled with seat time and back-to-basics instruction. Lighthouse operates two high-performing, K-12 public schools in Oakland: our flagship campus, Lighthouse, and our brand new campus, Lodestar (to open in East Oakland in the fall of 2016). Our mission is to prepare a diverse, K-12 student population for college and the career of their choice by equipping each student with the skills, knowledge, and tools to become a self-motivated, competent, lifelong learner."

"I will be sharing about our Pinball Machine Mayhem that is happening in our Technology and Innovation class. We started with a brainstorming session on the process this week. We began with the Project Idea phase: This is where we explained that they would be making pinball machines. How they made them or what they used is completely up to them during this process. Next we moved into the Prototype Design students during this phase was given a blank piece of paper about the size of the actual pinball machines that they will make. The goal here was for them to start to apply the different pieces of their pinball machines to this document. What was incredible about this whole process was before we released the students to go work we asked them what subjects do they think will be covered throughout this process. Right away hands went up and students started sharing. Math - Area, Perimeter, Height, Length, Pythagorean Theorem to find the slope of their machine. ELA - Research, Creating a story for their pinball machine Social Studies - History of the pinball machine, Research on different pinball machines Science - Volume, Friction, Gravity, Art - Theme of their board, Creative look of their pinball machine. Tech Ed - Lights, sensors, buzzers Makerspace - Students talked about using little bits, robotic kits, makey makey board, along with legos and Knex's"

"Your smartphone is packed with sensors and miniaturized equipment. Instead of using them to snap photos or message friends, harness those instruments for the sake of science. Software can turn a phone into a mobile science laboratory, letting you make research observations, track earthquakes, study birds and stars and the elements, and even project a virtual particle accelerator. Here are some of our favorite apps for doing science on your smartphone. "

"A matchbox-sized, programmable device launches in the US and Canada today, aimed at offering children a gentle introduction to the world of computers. Already used in schools across the UK, the BBC micro:bit is designed to make it easy for kids to write simple programs to control the board's hardware, with creations to date including basic games and animations. The device packs a 25 LED matrix display, a motion sensor, accelerometer and two buttons onto a tiny 4cmx5cm board. It can be programmed using easy-to-grasp tools, such as the drag-and-drop programming environment Scratch, or if the user is more confident, by coding in a variety of languages, including JavaScript or MicroPython."

"With so many Raspberry Pi projects to choose from, it can be tricky to find the one you really want to build. Our advice is to find a way to marry the Pi with something you really love. One great example is TV and movie robots - iconic characters from popular sci-fi that can be rebuild at home with a Raspberry Pi built in. Once constructed, your robot might be able to utter commands when a condition is met (perhaps a sensor detects motion). Or it might move around, learning about its surroundings, or reading information to you from Wikipedia. Whatever you have in mind, it should be relatively straightforward to plan and execute. It may take some time, however. Here are five example projects that show how you can combine a Raspberry Pi 2 or later with your favorite fictional robot. 5 Things Only a Raspberry Pi 2 Can Do 5 Things Only a Raspberry Pi 2 Can Do The latest edition of the pint-sized computer is awesome. So awesome, in fact, that there's 5 things you can only do on a Raspberry Pi 2. READ MORE 1. R2-D2 We've all wanted our very own astromech droid, haven't we? Sure, no one on earth is (currently) operating a light speed drive, but Star Wars droid R2-D2 has far greater abilities than onboard spacecraft maintenance. For instance, he can hold torches, carry a tray of drinks, and launch lightsabers across pits in the desert. Okay, it's unlikely you'll manage to get your own R2-D2 robot to do that… but don't let that put you off. Check out this little guy, controlled by a Raspberry Pi. While this project was based on an existing R2-D2 toy, that shouldn't limit your ambition. You'll find plenty of R2-D2 builds on YouTube. There's a massive R2-D2 building community online. Finding one that has a drive unit should be ideal for integrating a Raspberry Pi (and perhaps an Arduino, which you can use the two together) and developing a more realistic R2-D2 experience. Arduino vs Raspberry Pi: Which Is The Mini Computer For You? Arduino vs Rasp