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The Bebras cards are designed to enable pupils to develop their computational thinking skills, whilst at the same time providing an introduction to more advanced computing concepts. Computational Thinking Each card is aligned to one of the following computational thinking concepts, which are indicated in the top right-hand corner of each card.  Patterns  Algorithms  Logic  Abstraction Task Difficulty The difficulty of the task on each card is indicated by the icon in the bottom right-hand corner.  = Easy  = Medium  = Hard Answers and Other Materials Answers to tasks, ideas for teaching and national curriculum links can be found at: www.bebras.uk Tip: pupils will need an exercise book or a piece of paper in order to record their answers to each activity

The Bebras cards are designed to enable pupils to develop their computational thinking skills, whilst at the same time providing an introduction to more advanced computing concepts. Computational Thinking Each card is aligned to one of the following computational thinking concepts, which are indicated in the top right-hand corner of each card.  Patterns  Algorithms  Logic  Abstraction Task Difficulty The difficulty of the task on each card is indicated by the icon in the bottom right-hand corner.  = Easy  = Medium  = Hard Answers and Other Materials Answers to tasks, ideas for teaching and national curriculum links can be found at: www.bebras.uk Tip: pupils will need an exercise book or a piece of paper in order to record their answers to each activity

"Our "Key Concepts of Computational Thinking" framework supports teachers in identifying where their students can leverage computational thinking to enhance their learning. Within these eight key concepts, teachers in every subject have found intersections with what their students are expected to know and know how to do."

"Halloween is packed away, Christmas looms on the horizon, report cards are consuming way too much time…all of which means it is almost one of my favourite weeks of the year: Hour of Code week! This year Hour of Code officially runs from December 4th to 10th. Last year our teachers and administrators worked really hard to ensure that students in all grades and across all of our schools got a chance to try one or two coding activities during Hour of Code week. I hope we do even better this year and for the next several weeks my blog posts will be dedicated to helping teachers prepare for Hour of Code in their classroom. However, in any discussion about coding, I think it is important to start off by discussing Computational Thinking. Computational Thinking is the basis for all coding. More importantly, it provides a great base for problem solving in any arena of life, from getting dressed for the snow to building a gingerbread house to completing a school project."

"Use Blooms Taxonomy thinking skills to incorporate Computational Thinking Concepts within your lessons. This poster cross references Blooms Taxonomy thinking skills with the concepts of Computational Thinking in order to support your delivery of these concepts within the classroom."

"Today's teachers are key to the next generation's success. Barefoot supports primary educators with the confidence, knowledge, skills and resources to teach computer science. Resources aligned to the curricular for all UK nations. This includes FREE high-quality lesson plans and local CPD Workshops, all designed to help teachers gain confidence in bringing computer science to life in the classroom. CAS and BT are working together to support teachers in delivering the computing curriculum. BT - Barefoot Computing is part of BT's commitment to help build a culture of tech literacy and use the power of communications to make a better world. Find out more at www.techliteracy.co.uk CAS - For teachers who have found Barefoot Computing the first entry point on their CPD journey, Computing At School can be found by clicking here http://www.computingatschool.org.uk/"

"Computers are everywhere in our world today and being an educated citizen requires an understanding of the fundamentals of computer science and its underlying problem-solving methodology of computational thinking. Not every child should become a computer scientist, but all children should have the opportunity to explore and create with computing. Google has developed programs, tools and resources that advance computer science education and provide opportunities for exploration and learning in school, in informal settings and at home."

"At the secondary level, core computer science (CS) concepts and practices are taught in courses typically within the information technology (IT) career cluster under the umbrella of career and technical education (CTE). However, CS concepts and practices are also increasingly being incorporated into academics and also electives (and are influenced by art and design). No matter the discipline, creating computational artifacts is one of the core CS practices students should consistently experience to become better problem-solvers. Computational artifacts may include images, videos, presentations, audio files and computer programs. Precise and consistent practice in computer programming (CP) will help students construct cross-curricular knowledge in tandem with both academic and CS concepts and practices. As CP is the process of writing a program from start to finish, students receive exposure in the amalgamation of practices 3-6 found in the K-12 Computer Science Framework. So, how can we successfully engage students in CP? Here's how we can do so in four major steps."

"This post is a summary of an article submitted to the Learning Partnership for use in their monthly newsletter Spark. To read the full article, please visit: https://bit.ly/2pERWIG  Computational Thinking (CT) and the use of computer programming (often referred to as "coding") to support math instruction has gained momentum in recent years. CT has many definitions but most researchers agree that it "involves the use of computer science concepts such as abstraction, debugging, remixing and iteration to solve problems" (Brennan & Resnick; Ioannidou, Bennett, Repenning, Koh, & Basawapatna; Wing as cited in Lye & Koh, 2013).   There are many "potentials" for using computer programming as a context for the development of CT in the mathematics classroom, four of which I've listed below:"

"Thanks to the successes of campaigns like the Hour of Code and this week's Computer Science Education Week, educators, policymakers, and families around the country are realizing the value of coding and computer science in K-12 education. But how do "code," "computer science," and, "computational thinking," fit together? What is motivating their introduction into schools, and how might they change education?"

"Across the United States and around the world, educators are being called on to help their students prepare for futures in an increasingly computational world. Integrating computational thinking into activities, lessons, and curricula not only supports building new skills, but also enhances learning and engagement in every discipline. However, there are still many more educators who do not feel comfortable with computational thinking concepts than those who do."

"In recent years, there has been a push to introduce coding and computational thinking in early childhood education, and robotics is an excellent tool to achieve this. However, the integration of these fundamental skills into formal and official curriculums is still a challenge and educators needs pedagogical perspectives to properly integrate robotics, coding and computational thinking concepts into their classrooms. Thus, this study evaluates a "coding as a playground" experience in keeping with the Positive Technological Development (PTD) framework with the KIBO robotics kit, specially designed for young children. The research was conducted with preschool children aged 3-5 years old (N = 172) from three Spanish early childhood centers with different socio-economic characteristics and teachers of 16 classes. Results confirm that it is possible to start teaching this new literacy very early (at 3 years old). Furthermore, the results show that the strategies used promoted communication, collaboration and creativity in the classroom settings. The teachers also exhibited autonomy and confidence to integrate coding and computational thinking into their formal curricular activities, connecting concepts with art, music and social studies. Through the evidence found in this study, this research contributes with examples of effective strategies to introduce robotics, coding and computational thinking into early childhood classrooms."

"This blog post includes a 5 minute video, a lesson plan and examples of student that show integration of visual art curriculum and Computational Thinking in my grade 3 classroom. Thank you to Bea Leiderman, Carolyn Skibba, Douglas Kian and my experience at the Apple Institute in Berlin for this idea.  Using Keynote and Kandinsky is Bea's idea. It's brilliant. Bea, Carolyn and I went to the Bauhaus Archive in Berlin where we saw Kandinsky's work. We also had in depth workshops on Keynote. The combination of these experiences at the Apple Institute in Berlin lead to this idea and a project. Bea, Douglas and I are currently working on a project where we are investigating how these ideas of art, coding, and Computational Thinking might fit together. This is the early stage of this team project. This video gives an overview of the lesson and a chance to peak inside my grade 3 classroom:"

Welcome to the TVO TeachOntario Coding and Computational Thinking in the Classroom Hub. We are excited to serve as the guest hosts for this hub, as we showcase coding and computational thinking ideas, research, activities and practices from educators around the province. This hub is meant to serve as a collaborative place where we can all develop our understanding surrounding innovative practices related to coding and computational thinking. We also hope that it can serve as a responsive, ever-changing resource that meets the ...

"Google in collaboration with representatives from leading educational and scientific platforms have put together this free online course entitled 'Computational Thinking for Educators' introducing teachers to the importance of computational thinking. The course is particularly intended for educators working with students between the ages of 13 and 18 who are interested in enhancing their teaching with creative thinking and problem solving.'"

"I want people to realize that the concept of coding happens all the time in many classrooms. Kids tinker, make, solve problems, collaborate and challenge each other all the time. I'd argue that most teachers already do most of this list, without the awareness. The Hour of Code movement is great because it raises awareness but does little from the aforementioned list. HOC is a superb entry point but not a destination. Coding isn't the only way to demonstrate these skills - and technology isn't even required. I've been pushing coding for close to a decade now and am pleased to see it finally get some traction (and there were many before me). Now it is time for a next step. As such, I am proposing a new hashtag #CTMindset (Computational Thinking Mindset) to remind us how people think, computers think and technology works. If we can combine the three, maybe there is some hope."

" I heard a great talk a few months ago. It was Conrad Wolfram (probably one of the world's leading mathematicians) who suggested, that we should stop teaching our kids maths. Whoah! He said, and I'm paraphrasing, we needed to teach them computational thinking instead. What is that? He said every problem needs breaking apart, exploding it into its parts - if we are to begin to properly solve them. And better still that we explain to kids how to put that idea into practice. Explain to them, for example, that to make their bike go faster they might figure out how much bigger the peddle wheel needs to be than than the one on the back wheel. According to Wikipedia computational thinking is an iterative process based on three stages: 1. Problem formulation (abstraction) 2. Solution expression (automation) 3. Solution execution and evaluation (analyses) That REALLY works for me."

"That computer mouse that fits so nicely in your hand, the way your iPhone reacts to your creative way of spelling, the "so simple why didn't I think of that?" processes you encounter every day -- these are the result of design thinking, a sequential process embraced by innovative companies and entrepreneurs. Design thinking, or human-centered design, is an empowering way to solve problems and design products and solutions by starting with discovery, moving on to ideation and rapid prototyping, then testing, and finally execution. How can this high-level, innovative style of problem solving work in a classroom or after-school program? Quite well, actually. The West Michigan Center for Arts + Technology (WMCAT) engages urban high school students in a best-practice after-school program that is grounded in design thinking. I'll share our journey so that you can find ways to enhance your own learning environment through design thinking. "

A new, widely accessible Advanced Placement Course for Computer Science. The College Board oversees the development of the course and exam that will launch as AP Computer Science Principles in 2016-2017. For College Board details, see College Board's Advances in AP site. The AP Computer Science Principles Curriculum Framework (.pdf/1.42MB) was developed to serve as a fundational guide to ensure selected curricla focuses on innovative aspects of computing along with the computational thinking practices that are critical to a future-ready education.

"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."