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"To help fill this gap in K-12 STEM education, Harvey Mudd created its first MOOC for middle and high school teachers. Middle Years Computer Science (MyCS) walks a teacher through the lesson plans, activities and exercises of a curriculum developed to appeal to students with a broad range of interests and no prior CS experience. Schools that have been using it have found it to be easy to use, accessible and engaging for their students. Our second MOOC offering, How Stuff Moves, supports students in their first course in calculus-based physics, a fundamental building block to further physics study in college. The course provides lectures, demonstrations, problem sets, worked solutions to every practice problem and concept tests- a wealth of resources to help students master the material, whether they are considering taking a high school AP physics course or their first mechanics course in college."

"The other day, I noticed one of my daughters playing a puzzle type game on my iPad. It was obviously challenging and often frustrating but she kept at it regardless. The game was direct problem solving and my girl was deeply engaged. It was then I had an idea. If any learner who found themselves disengaged from a school task had permission to select from a list of problem-solving, "brain igniting" games, it might mean they return to the task more energised to tackle it or suggest other solutions."

"Below is a set of good iPad apps that you can use with your kids and students to enhance their mathematical thinking. These apps are meant for young learners and are specifically useful when introducing kids to those rudimentary notions of mathematical computations. The purpose of teaching kids to think mathematically, as detailed in Kaye Stacey's paper, is three folds: First, it will allow kids to conduct mathematical investigations by themselves. Second, it will help them acquire other thinking skills particularly problem-solving and as mathematician Paul Halmos (1980) stated, 'problem solving is the heart of mathematics'. Third, it helps kids get a deeper appreciation of mathematics and use it in their daily and working lives."

If you are a parent, teacher, or other adult working with children, this blog aims to help you learn, as much as possible, about helping digital kids grow into thoughtful, collaborative, and savvy digital citizens. The blog's mission is to provide context for adults - defining and clarifying digital world issues, 21st Century learning challenges, and those virtual environments and devices that children take for granted. It's not really about technology anymore. Instead it's about lifelong learning, collaboration, problem solving, and flexibility. Media! Tech! Parenting! examines or reviews three or four items of digital news and information each week, surveying newspapers, blogs, research, and magazines, as well as the media, safety, and educational websites. Blog posts, as often as possible, provide links pointing readers toward the sites or publications covered in blog posts. I am Marti Weston, the principal blogger on Media!Tech!Parenting! In my professional life I focus on learning in a K-12 environment along with all the digital world issues that challenge teachers, students, and parents. With more than 30 years of teaching experience I also support parents by teaching three-five digital education classes, leading question and answer sessions, and maintaining current resources on the school's website. My professional work centers on four areas: Coaching teachers and helping them develop learning environments that are rich with 21st Century collaboration and problem solving. Helping students learn to use digital tools appropriately, understand their digital dossiers, and move - carefully - along the digital citizenship highway. Providing teachers, students and their parents added context that helps them evaluate media and learn more about how media affect their world, Offering parents information about the always changing, fast-paced virtual world and suggesting effective parenting skills and strategies that will help children grow into stro

"Some time ago, the school I was working in decided to move to longer lessons in order to allow more time for in-depth learning, and to solve some practical problems related to rooming and movement around the school. Initially, these lessons became doubles - two hours - and eventually, the school moved to a three lesson day of 1hr 50 mins per lesson. Many schools are doing the same thing. The problem, though, is that you can't just roll two lessons into one. You have to start rethinking the way you conceptualise a lesson from start to finish."

"Many of the applications for introductory program are based on the logo turtle concept.  Even at that presentation, there sometimes is a challenging entry point.  You have to understand the concept of the stage, the mathematics of location, movement, etc. before you even get started. In the case of CodeMonkey, they've take more of a challenge / gamification approach. Yes, you work directly with code instructions like STEP and TURN but they're done in the context of solving a problem.  The video above gives a nice description of how you or your students work within the environment. As with many of my obsessions with coding and Computer Science, it's just plain fun.  Stepping back for a moment, I had to reflect on the fact that they've introduced the concept of coding and problem solving in a very non-threatening manner.  I was quite impressed."

"'ve been reading a powerful new resource titled Beyond Pizzas & Pies, by Julie McNamara and Meghan M. Shaughnessy.  They describe fraction sense this way: Fraction sense implies a deep and flexible understanding of fractions that is not dependent on any one context or type of problem.  Fraction sense is tied to common sense: Students with fraction sense can reason about fractions and don't apply rules and procedures blindly; nor do they give nonsensical answers to problems involving fractions."

"This week's question is: What are the differences between Project-Based, Problem-Based and Inquiry Learning? Thinker, educator, writer John Dewey suggested that we learned best by doing. Educators today are trying to implement that philosophy through a number of instructional strategies, including project based, problem based and inquiry learning. This series will explore the differences between the three of them."

"Presentation Title: Building Learning Keynote - Making the Case for Making in Schools Presentation Description: The Maker Movement is a revolutionary global collaboration of people learning to solve problems with modern tools and technology. Adults and children are combining new technologies and timeless craft traditions to create exciting projects and control their world. The implications are profound for schools and districts concerned with engaging students, maintaining relevance, and preparing children to solve problems unanticipated by the curriculum. The technological game-changers of 3D printing, physical computing and computer science require and fuel transformations in the learning environment. K-12 educators can adapt the powerful technology and "can do" maker ethos to revitalize learner-centered teaching and learning in all subject areas."

"This has been a tremendous week.  A preview of CODEGIRL was made available here Nov. 1-5: It is all about teams of girls from around the world who participated in the Technovation Challenge to create apps to solve a problem in their community.  What do they do?  They persevere as they solve problems by creating, building and becoming entrepreneurs."

"The province is drafting plans to make coding a part of the curriculum in every grade. Education Minister Karen Casey told a room of more than 600 students at the Big Data Productivity Congress in Halifax on Wednesday that learning coding will help prepare them for future careers. "We know that coding promotes problem-solving, teamwork, critical thinking, innovation and creativity," Casey said. "And we also know that those skills are directly related to industries like computer programming, manufacturing, communications and more. And those are the industries that you will be going to." The Education Department will finalize its plans over the course of the 2015-16 school year, and will introduce formal coding instruction in some grades in September."

"Our approach, called Coding By Design, begins with solving real problems for real people. We start with a design thinking approach to creating an app, then proceed to a prototype, multiple iterations based on real feedback, and finally a top-down approach to solving the coding problems and puzzles inherent in app development."

"As parents and teachers, we encourage our kids to become well rounded people who love learning.   In our world of cell phones, ipads, and computers, it's easy for kids to become passive consumers of media and technology.   We, however, want are kids to be active, curious, and creative.   Since I'm a musician and a software engineer, I hope that my kids learn to express themselves emotively and become creative thinkers.   We're trying to foster a family culture where we are active, encourage tinkering, and building physical things with our hands.    With these ideas in mind, I wanted to share a great video I found by Vinnie Vrotny and Sheryl Peterson entitled "STEAM: Creating A Maker Mindset."   In this conference talk from the K12 Online Conference in 2013, they share their experiences encouraging a "maker" mindset in the Quest Academy .   Their school has a very unique class teaching design thinking to kids.    It's giving me lots of ideas for building a maker environment for our family.    In this class, Sheryl encourages her students to invent a creative design problem and solve it.   With the tools and support of the teacher, the kids are encouraged to build their design.    In some cases, the kids ask Sheryl to assign a problem to them.    The kids aren't used to having creative freedom to design and make.    In these cases, Sheryl encourages the students to keep thinking."

"Over the last year and a half, I been intentionally responding to every complaint I make about education with the following questions: What have I made that helps solve this problem?  If not . . .  Who do I know that is solving this problem? How can I promote that solution?  I don't always have the answers and I don't have the time or the knowledge or the capacity to create solutions. But even that, in itself, is a step in the right direction. Sometimes admitting that you don't know the answer is a part of the solution."

"This lesson/series of lessons is designed to give pupils an introductory understanding of key computational thinking skills and help them to discover that in fact, computers don't solve problems, but are used by us to aid the problem solving process. This will be shown by using the BBC Micro:Bit device, both emulated via online tools and with a real Micro:Bit if available - and adding a touch of magic."

"This course introduces computer science through the Python programming language. It is built on the feedback of thousands of educators and hundreds of thousands of students who have used it to learn computer science and apply it to everyday problems. The lessons are designed to be easy for beginners, and test your understanding through problems and visualizations. "

"Over the past decade, there has been much discussion of the term computational thinking. The term, popularized by computer scientist Jeannette Wing, is generally used to describe computer-science concepts and strategies that can be useful in understanding and solving problems in a wide range of disciplines and contexts. In a growing number of schools around the world, there are now efforts to help students develop as computational thinkers. In our Lifelong Kindergarten research group at the MIT Media Lab, we prefer to focus on the idea of computational fluency rather than computational thinking. Why? We want to highlight the importance of children developing as computational creators as well as computational thinkers. In our view, computational fluency involves not only an understanding of computational concepts and problem-solving strategies, but also the ability to create and express oneself with digital technologies."

"One snowy January day, I asked a classroom of college students to tell me the first word that came to mind when they thought about mathematics. The top two words were "calculation" and "equation." When I asked a room of professional mathematicians the same question, neither of those words were mentioned; instead, they offered phrases like "critical thinking" and "problem-solving." This is unfortunately common. What professional mathematicians think of as mathematics is entirely different from what the general population thinks of as mathematics. When so many describe mathematics as synonymous with calculation, it's no wonder we hear "I hate math" so often. So I set out to solve this problem in a somewhat unconventional way. I decided to offer a class called "The Mathematics of Knitting" at my institution, Carthage College. In it, I chose to eliminate pencil, paper, calculator (gasp) and textbook from the classroom completely. Instead, we talked, used our hands, drew pictures and played with everything from beach balls to measuring tapes. For homework, we reflected by blogging. And of course, we knit."

"Math has been a traditionally thorny subject in many American schools. Lots of children dislike math and many more adults stopped taking mathematics as soon as they are able, even when they were successful in their classes. At the same time, mathematical thinking is a crucial part of many of the most exciting and growing careers in science, technology, engineering and math, not to mention important for a general understanding of the mathematical world around us. So, what can U.S. math educators do to shift this dynamic? Stanford Mathematics Education Professor Jo Boaler is championing a dramatic shift in how many math teachers approach instruction. Rather than focusing on the algorithms and procedures that make mathematics feel like a lock-step process -- with one right way of solving problems -- Boaler encourages teachers to embrace the visual aspects of math. She encourages teachers to ask students to grapple with open-ended problems, to share ideas and to see math as a creative endeavor. She works with students every summer and says that when students are in a math environment that doesn't focus on performance, speed, procedures, and right and wrong answers they thrive. They even begin to change their perceptions of whether they can or can't do math."