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"Find information about growth mindset, discover how learning mindsets can affect student performance, and explore strategies that support student confidence."

"It's time we create learning environments that make mathematics accessible for all students "But I'm just not a math person." We've all heard this refrain-and possibly even echoed it ourselves. As a young student, I felt this way for many years. For some reason, math just never clicked for me. My 11th-grade math class with Mr. Peterson changed all that. Why was his class different? He worked hard to bring us examples of math in the real world, connecting concepts back to our lives and making them feel relevant and accessible to us. He gave us voice and choice in our learning, and it made all the difference for me. I can only imagine how much my confidence and enthusiasm for math could have been changed had I experienced a similar instructional approach in all the grades prior. I've come to understand that there is no such thing as a "math person," and that high-quality math instruction is key to helping learners shed that perception. We know from decades of research that success in mathematics is more linked to opportunities to learn in a meaningful way than to innate intelligence, and we know that effective educators can nurture mathematical abilities in all students."

"Focusing on these five qualities of thriving classrooms can help foster confident young mathematicians."

"Evaluations found that students participating in Technovation challenges display are more self-confident, better problem solvers, better entrepreneurs, more resilient and more self-reliant. Sticking with the parents-as-first-teacher and go-global-and-see-what-breaks model, the Iridescent team launched the AI Family Challenge. Families learn about Artificial Intelligence and use it to solve a problem in their community. Five design challenges introduce families to AI concepts. Three more design challenges explore robotics. Ten more lessons prepare families to solve a problem in their community and submit to the AI World Championship."

"My students come from a small, rural community and lack a broad understanding of the larger world around them. This inspired me to seek out a game, or online environment, that could provide more expansive experiences for them-a place that would allow them to explore, on their own or with others, and where I could embed history content for them to discover. On Twitter I came across an exploratory discussion of Minecraft's potential for school use. I dove in and began a journey that ultimately changed my perception of teaching and how I interact with my students. Minecraft is easy to use and implement in a classroom. It promotes student independence and creativity, but it is also an immensely collaborative tool that I have witnessed being integrated across all grade levels and content areas. Students can apply their understanding in truly unique and often unanticipated ways. Previously, my kids struggled with writing. Today, they are more creative and confident writers. Instead of getting 125 essays written in the exact same style with the same details, I now get unique historical narratives, rich with sensory experiences and observations made with their own eyes."

"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."

"When thinking of ways to support those who are legally blind, two supports often come to mind. Guide dogs and Braille. It's no wonder. Guide dogs provide their owners with a sense of freedom, an increased level of confidence, and a feeling of safety. Blind people who know Braille and use it find success, independence, productivity, and are more likely to find employment. Surprisingly though, of the 1.3 million people in the United States who are legally blind, only about 2% have guide dogs according to Guiding Eyes for the Blind. Also surprising is that fewer than 10 percent are Braille readers according to a report from the National Federation of the Blind. Unfortunately, these supports are currently generally reserved for the elite in our society because of cost and access. These are unfortunate statistics. Fortunately, there are low-to-no-cost technologies that provide support to the visually impaired and blind population. Five technologies to support the visually impaired and legally blind. "

Yes, students learn how to work together to approach open-ended problems I agree with this but... gain confidence to work with complex problems, and develop grit to continue to work on the problem until a viable solution is found not agree an the same time. Now the younger students have many mini tattoos in their bodies and have more problems to fing jobs in the future.

"Building apps teaches teens far more than just computer skills-they also learn social entrepreneurship and gain self-confidence."

"As you may remember from your own (in)glorious youth, most university students are required to take a statistics course even if they hate math and aren't in a particularly numbers-heavy major. Ellen Peters, a professor of psychology at Ohio State University, heard this was driving a lot undergrads on her campus crazy. "A lot of the students are really threatened by it. They're kind of afraid of it, they dread taking it," she says. "If they do dread it, they can end up in a cycle of failure." Curious to see if she could make a positive change among math-phobic Buckeyes, Peters created an intervention that tested whether or not value affirmation could improve student's comfort and ability with numbers, otherwise known as numerical literacy or numeracy. The results, which were published Wednesday in the journal PLOS ONE, indicate that confidence and core values have a lot to do with learning the numbers."

"Benefits of Coding At the heart of computational thinking - and mathematics - is abstraction. When children write code, they come to… understand in a tangible way the abstractions that lie at the heart of  mathematics, dynamically model mathematics concepts and relationships, gain confidence in their own ability and agency as mathematics learners. Computer coding is creating a buzz in education. Prime Minister Justin Trudeau recently said, "We need to do a lot better job of getting young people to understand what coding is and how it's important, how to program, how to problem solve, how to create the most elegant algorithm possible."1 BC recently announced that computer coding will be added to all grades of the K-12 curriculum, and Nova Scotia has made a similar announcement. The trend of adding some form of computer coding to curriculum is an international phenomenon; in 2014, England mandated a coding curriculum for all K-12 students."

"As enthusiastic as I am about makerspaces in education, at some point, we have to take the training wheels off. There are thousands of maker products on the market that come with project guides, activity kits, and curriculum guides. And that is wonderful! But we're forgetting that those guides and kits are just TRAINING WHEELS. They were just meant to give you the foundation skills and confidence needed to take it to the next level. So what is the next level, you ask? YOU TELL ME.   That is the whole idea of the maker movement and sometimes I feel we are totally missing it.  "

"What are the kinds of ideas that convince people that they can change the world? What about students-what kinds of inspiration or knowledge or confidence or vision do they need to believe they can affect real change in their community? This is, at its heart, a matter of critical literacy-the kind of knowledge that empowers students to change their world. Social activism often appears in light of political leaning, but is first a matter of people gathering for a common cause in pursuit of change."

"Close your eyes and picture the most recent math class you taught. Who is doing the math? Who is doing the talking? Who is doing the thinking? Three years ago, my answer would have been "me"-the teacher. My students were doing math, but I was probably telling them how to think and what to do most of the time. My big aha moment was being introduced to the research of Peter Liljedahl, a professor at Simon Fraser University. Liljedahl proposes three strategies that you can implement in order to create what he calls the thinking classroom: Start with good problems, use visibly random groups, and work regularly on vertical nonpermanent surfaces. I started using these three strategies in my math classes, and they have been an absolute game-changer. I can confidently say that my students now do most of the thinking and talking in my classroom."

"Citizen Maths is for people who want to improve their grasp of maths, and become more confident in using maths at work and in life. Maths may have passed you by at school. Or you may be rusty. Maybe you've passed maths exams but find it hard to apply what you know to the types of problem you need to solve now. Problems like using spreadsheets, judging amounts or assessing odds. If so, then Citizen Maths may be for you. The course is at 'Level 2' - the level that a 16-year-old school leaver is expected to achieve in maths. (For questions about certification, please see our FAQ.) The course is based on solving the kinds of problems that come up at work and in life. And it is free. All you need is access to a computer, the internet and a basic grasp of maths. Sign up straight away, or try our nine-point check-list to see if Citizen Maths can help you."

"We live in a stressful world, and the stress is heightened for students and educators when it's time to prepare for high-stakes tests. When test scores are tied to school funding, teacher evaluations, and students' future placement, the consequences of these stressors can be far-reaching. From a neurological perspective, high stress disrupts the brain's learning circuits and diminishes memory construction, storage, and retrieval. Neuroimaging research shows us that, when stresses are high, brains do not work optimally, resulting in decreased understanding and memory. In addition, stress reduces efficient retrieval of knowledge from the memory storage networks, so when under pressure students find it harder to access information previously studied and learned. Get the best of Edutopia in your inbox each week. Students (and their parents) often interpret suboptimal standardized test scores as a measure of the students' limitations in intelligence and potential. The consequence is a loss of confidence, further activating their brains' stress response, making it more difficult for them to employ their cognitive resources and knowledge during the tests themselves."

"Helping children visualize math is critical to their success in the subject. I recently observed a 5th grade class starting a lesson on area and perimeter. I turned to a girl who was in my class four years earlier and reminded her that she knew the topic. "Yes I do!" she said excitedly. "The perimeter is where you sit along the outside of the rug in morning meeting, and area is the inside of the rug, where the squares are. That's from 1st grade," she said confidently, circling her fingers in the air to represent her thinking. Visual cues, like this one I use with my six- and seven-year-old students, stick and show that envisioning math helps children learn in lasting ways. We teachers can do more to give students internal ways to see the structure of mathematics-to understand types of units and what it means to move between them, and to pull apart and combine numbers. But math instruction is changing. At my school, in the early grades, we encourage children to use their fingers, something that feels so natural to them, to better understand numbers and the numbering system. We might talk about how a "high five" involves using a whole hand, which is really a unit made up of five fingers; while a thumbs-up involves just one segment of that five-part unit. We then go on to using things like beads on a string and, later, place-value disks, which are like poker chips, to help children see and work with numbers, units, and place value."

Possibly the most dangerous place to spend too much time is inside your comfort zone. Only when we take a risk and step away from the safety of the familiar and the ways we have always done things do we expose ourselves to new ideas and become open to the possibility of learning and discovery. The trouble is having the confidence to take that first step, to embrace discomfort and become open to the risks that come with trying something new.

"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."

"8-year-old Kaori Misue was born without fingers. Usually, creating specialized prosthetics costs upwards of $15,000. However, thanks to a 21-year-old inventor, Misue received a prosthetic hand which has changed her life. Gino Tubaro is offering kids born without limbs the chance to receive a cheap 3D printed prosthetic. Misue's mother, Karina Misue, adds: "It was magical… The confidence it gives kids is tremendous. They're using it with pride." Tubaro's 3D printed prosthetic designs are part of the "Alternative Limbs Project", which began in his home of Argentina. The prints come in a range of designs, offering users the chance to decide what they need the prosthetic for most, whether it's playing an instrument or ping-pong. The prosthetics for kids can even be superhero themed (and shoot rubber bands)."