Group items tagged

"Tinkering activities provide a powerful way to inspire students' interest, engagement, and understanding in science. The Tinkering Fundamentals course will help educators and enthusiasts develop a practice of tinkering and making. This course will focus on key design elements of high-quality, science-rich tinkering activities, effective facilitation strategies and environmental organization. Watch Intro Video About the Course The Tinkering Fundamentals course will offer educators and enthusiasts an opportunity to develop a practice of tinkering and making.  We see tinkering as a serious endeavor -- one that is generalizable across content and especially good at interweaving disciplines in a way that leads to complex projects and individualized learning opportunities.   Tinkering has recently been introduced into the educational field as a potential driver of creativity, excitement, and innovation in science learning. It is seen by many as an effective means to engage in exploring STEM concepts, practices and phenomena. Tinkering typically blends the high and low tech tools of science along with a strong aesthetic dimension that supports children's (and adults) self expression.  For over a decade, the Exploratorium has been developing science-rich tinkering activities. Working with learning scientists, we have identified a set of design principles and indicators of learning that can help you to integrate tinkering activities into your elementary and middle school science programs. This course will focus on key design elements of high quality science-rich tinkering activities, facilitation strategies, and environmental organization. Selected  tinkering activities will be centered around circuits for this course.  We will review the ways in which tinkering supports science learning through providing opportunities to deepen engagement, intentionality, innovation, collaboration, and understanding. This course will excite you, inspire you, and get you tinkering in

"In this article, we use evidence to describe seven key lessons from a four-year district-wide computer science implementation project between Howard University and the District of Columbia Public Schools. These lessons are: (a) Get to know the school counselors (and other key personnel); (b) Expect personnel changes and strategic reorganization within school districts; (c) Be innovative to build and maintain community; (d) Be flexible when developing instruments and curricula; (e) Maintain a firm commitment to equity; (f) Develop tiered content and prepare to make philosophical adjustments; and (g) Identify markers of sustainability. We also include original curricula materials including the Computer Science Course Evaluation and the Computational Thinking Survey. The seven lessons and curricula materials provided in this study can be used to inform the development of future computer science researcher-practitioner partnerships."

In this article, we use evidence to describe seven key lessons from a four-year district-wide computer science implementation project between Howard University and the District of Columbia Public Schools. These lessons are: (a) Get to know the school counselors (and other key personnel); (b) Expect personnel changes and strategic reorganization within school districts; (c) Be innovative to build and maintain community; (d) Be flexible when developing instruments and curricula; (e) Maintain a firm commitment to equity; (f) Develop tiered content and prepare to make philosophical adjustments; and (g) Identify markers of sustainability. We also include original curricula materials including the Computer Science Course Evaluation and the Computational Thinking Survey. The seven lessons and curricula materials provided in this study can be used to inform the development of future computer science researcher-practitioner partnerships.

"This ASCD Study Guide is meant to enhance your understanding of the concepts and practical ideas presented in Learning Transformed: 8 Keys for Designing Tomorrow's Schools, Today, an ASCD book written by Eric C. Sheninger and Thomas C. Murray. You can use this study guide either with teachers if you are a professor, teacher leader, or coach, or with younger students if you are a classroom teacher. You may already have posed to yourself or a colleague many of the questions included here, and others will become evident as you read through the book. You may choose to answer the questions before tackling each chapter of the book or answer them as you finish the chapter. Each chapter is rich in information-content, pedagogy, and research-so take the time to digest one at a time. The study questions provided address some of the most salient ideas in the book. They do not address all of the notions covered in the book."

"In 21 years in education, I have seen many trends come and go. I am on a mission to keep makerspaces from being added to that list. That's at the core of everything I do now. Makerspaces are an educational philosophy, foundationally solid, and we can't allow them to be cast aside by cynics who might suggest they were just a fun fad that has run its course. We must work to secure the future of makerspaces. Their fundamental purpose is too important, the impact on students too significant. A true makerspace offers student-driven opportunity for open-ended exploration for everyone. Makerspaces are a mind-set, a culture. It's about the pedagogy. A great makerspace has seven key attributes: It is personalized, deep (allowing deeper learning), empowering, equitable, differentiated, intentional, and inspiring. If you have all of that, you can call your space a makerspace-maybe even a great makerspace. So what's next? What is the key to the future of makerspaces? Sustainability. That requires proper planning. I am not just talking about the initial planning that is vital to creating the right makerspace for your school. This planning is for the future, and it requires looking back."

"While John Spencer and I were developing the LAUNCH Cycle, we came up with a few areas that were likely stumbling blocks in the creative (design-thinking inspired) process. One of the keys to the Launch Cycle is taking the time to Look, Listen, and Learn throughout the entire process (that is the L in the LAUNCH acronym). In talking with George Couros about the Launch Cycle we had a good conversation about when it was appropriate to share that learning. The quick answer: all the time. From start to finish you can be learning and sharing during the process. Whether it is students doing a Genius Hour Project, teachers creating their own PD, or school leaders implementing an initiative - the key is to be transparent with that learning process."

One of the key ways by which we make sense of our world is by analysing the stories that we and others use to describe it. These stories are a construct of our experiences, our beliefs, our cultural perspectives and the interactions between these things. Even when the context in which the story is set is the same, the details and nature of the story that particular individuals or collective share can differ vastly. Only by listening to each story with empathy and genuine desire to understand each individual's telling of this story do we develop true insights. Making sense of the stories of education should be a key process for all educators.

"Imagine you're babysitting two 12-year-olds, one boy and one girl. Which is more likely to be playing video games, and which one is painting a picture? Thanks to gender stereotypes, tech is often seen as boys' domain, while arts and crafts are assumed to be for girls. STEM-the acronym for science, technology, engineering, and math-doesn't exactly conjure visions of toys and games. But a recent survey by Two Bit Circus, a Los Angeles-based engineering entertainment company, shows a significant gender divide between boys' and girls' interest in STEM that experts hope can be closed by child's play: in other words, finding ways to make school more fun and engaging for kids."

"For years, it has been no secret that many students who start post-secondary education programs drop out early. To address this issue, many schools and institutions decide to redesign their courses with the hope that students might gain a greater feeling of success, continue with their chosen program and graduate. When considering courses for redesign, many questions are asked but the most important is this: "What data should be considered to ensure our course redesign efforts are successful?" Data metrics like grades, attendance or participation rates are obvious considerations. These can be reliable metrics in driving decision-making. However, I recommend also considering student feedback, faculty load, student experience, and assessment performance as additional data points which can better inform decisions that directly impact the course redesign process."

"I want to talk today about how we build bridges between old ideas and new ideas, between concepts that are close to home intellectually and those that are far afield. Because it is these bridges, these connections, that produce innovation."

"If we are to be completely honest with ourselves, the concept or theory behind computer science in the curriculum is not new, well not within Early Years Education. If we stop and think for a minute, what is happening when we code? We end up with - Problem Solving. Plain and simple……Computer programmers, computer scientists……solve problem! Our young learners spend every day solving and overcoming problems and obstacles. As educators, we set up scenarios, we pose problems and we guide the children towards finding strategies. These challenges are often in Maths and Science lessons but we sometimes see them in Physical Education and language classes too. We always strive to relate these problem solving skills to contexts, it makes sense if children can relate to real life scenarios. And this is where coding fits in."

Free Download RRB West Bengal Exam Question Paper 2015 with Answers Key... Download Now -