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"To prepare students for college and careers, reading comprehension needs to be a part of all subject areas. Students cannot master complex scientific concepts, comprehend historical treaties, or follow complex logic problems without it. Content areas deal with complex texts that require analytical reading skills. Students in social studies, science, and math classes have to be able to compare and synthesize ideas, and use specific academic vocabulary. In 2002, Fisher, Frey, and Williams compiled this list of literacy strategies for the content areas. Today, we're going to add to the list and suggest certain reading comprehension strategies to try in your content area classroom"

"very year, many of my students seem to have difficulty grasping the idea of perimeter and area. I've found that the best way to help students learn the difference between the two while figuring out how to properly calculate each is to have them engage in several different hands-on activities. This week I'll share with you how I introduce these important measurement concepts separately, then reinforce them with engaging cumulative activities that emphasize both area and perimeter."

"This week, Grade 5 began a unit on Volume, Capacity and Surface Area. On a weekly basis, I take combined groups from the 4 grades consisting of the higher achievers, while the classroom teachers concentrate on the mainstream group and students needing more individual instruction to achieve success. I made a conscious decision this week to focus on using iPads with my group to explore both volume/capacity as well as surface area."

"With more than 500,000 apps available for use on the iPad, which ones are best for education? TCEA (Texas Computer Education Association) helps by testing and recommending great apps for the classroom. They regularly try out new apps and list those that make the grade in the shared document available here for iPad. Apps are categorized into 46 different subject areas and 14 different personal use areas. Apps that are free are listed in white. "

"We all know that from September 2014 the national curriculum is changing to include Computing as a programme of study and I am sure I speak for a lot of teachers when I say "but I know nothing about programming or coding?!" Before we panic too much about how we teach this new area its important to note that the subject of Computing is not solely about coding and importantly involves a whole range of areas that we may already be delivering in other subjects such as maths and science without realising it. The skills that encompass computer programming are those that will also transfer into the real world such as problem solving and thinking logically, which will obviously transfer into the world of work and are useful skills for learners to develop moving forward in their careers irrespective of the job area."

CORE Education is a not for profit educational research, development and implementation organisation in New Zealand. CORE aims to provide educators with the quality professional learning opportunity in an online context. Centre4 acts as the portal to this e-learning world and you are welcome to explore it in the areas that interest you. While many communities are open to the wider public, some areas have restricted access for project participants. Their purposes are indicated below.

This website was created to aid educators in finding valuable resources and information on new ways to integrate leading-edge technology into your school. Additionally, this site focuses on a very important area in education: STEM content areas. Science, Technology, Engineering and Mathematics are key components of our educational infrastructure. Great attention is being placed on these areas as the need for improvement and advancement are becoming overwhelmingly critical for our students. This site demonstrates how Apple's iPod touch mobile device and other Apple equipment can be infused into the curriculum not just during school hours, but anytime and anywhere. These devices allow students to take ownership of their learning and are providing them with authentic and real-time educational opportunities

"If the promise of mobile technology in classrooms has been to equalize opportunities for all students through access to the internet, that potential has yet to be realized. National surveys consistently show that students in low-income schools are getting short-changed when it comes to using technology in school. A 2013 Pew study revealed that only 35 percent of teachers at the lowest income schools allow their students to look up information on their mobile devices, as compared to 52 percent of teachers at wealthier schools. And while 70 percent of teachers working in high income areas say their schools do a good job providing resources and support to effectively integrate technology into the classroom, only 50 percent of teachers in low-income areas agree. The reality is that while some teachers have found powerful ways to use mobile devices - both those owned by students and those purchased by the school - teachers at schools in very low-income areas are often battling a persistent student culture of disengagement. Many students have learning gaps that make it hard for them to stay interested in grade level materials and little desire to be in school at all."

"With the Common Core adoption in the United States, teaching vocabulary is no longer strictly the domain of the English-Language Arts classroom. While Robert Marzano has been promoting the instruction of academic vocabulary for years-and many school literacy plans have included reading and writing across the content areas for years-it is now a matter of standard and law. Which makes it kind of a big deal."

"Declining attention span as a result of increasing use of smartphones and social media are just a few challenges teachers deal with in the modern classroom. Children today deal with more stimuli around them than ever before. Mobile phones, tablets,and other technology have become so intertwined with our children's daily lives that it's hard to imagine keeping it out of the classroom. Even though some believe these can be distractions, embracing technology can make learning more fun and impactful. Smartphones, iPads and other devices have become so intuitive for kids, it only makes sense to harness these powerful learning tools to engage a classroom full of tech-savvy students. And the best part? You can use these ideas in one form or another for any student in any content area and grade level."

"iPads in the Content Areas"

"eaching kids to code is the big topic at the moment. But how do we make it an authentic experience for our students? Certainly in the Primary/Elementary schools, there are many strong connections with other curriculum areas. Let's take a look at some:"

"Since the beginning of September we have been trying to maximise the use of 1:1 iPods in year 6 in all areas of curriculum. The potential of enhancing teaching and learning in mathematics through the use of this technology has been particularly interesting. We have been developing the creative use of a range of Apps to support progress, engage children and add relevance to maths teaching with positive outcomes (10 Practical ways to use Apps in Maths) We have also explored a wide range of maths specific Apps which have helped pupils mainly in the areas of number fact and tables recall. (Apps for Maths) Recently we have extended the use of the iPods to allow them to support independent learning, and play a central role in effective formative assessment."

"Coding, computer programming and computer science are being discussed as possible curriculum topics, pedagogical tools and integration contexts within our elementary schools. I understand, however, that some teachers may feel a certain level of concern, worry or even anxiety when it comes to learning and teaching within this area. How are educators expected to teach coding with little to no experience? How can they develop and implement lessons without adequate formal instruction in the subject area? While these questions are valid, I challenge teachers to see the novelty of coding as a valuable professional and personal opportunity."

"This past fall (2015), I was lucky enough to be a part of the K-8 Computer Science Standards Committee for the state of Arkansas. Arkansas is the first state in the US to require all students in K-8 learn computer science standards. These standards will be embedded in other curriculum areas, CS will not be a stand alone subject. All of Arkansas's high school's must have CS courses available for interested students as well. The Computer Science Standards (Linked HERE from the ADE Website) begin with a set of Computer Science Practices. These practices exhibit the "habits of mind" that it takes to succeed in the area of Computer Science. Many teachers will agree that these are also great habits to succeed in every subject."

"A few weeks ago, at the Bay Area Discovery Museum (BADM) near San Francisco, 5-year-old Jack Stabenow climbed a step stool to peer into a machine that cuts cardboard with a high-powered laser. The red beam precisely followed a squiggly building design that Jack had just finger-drawn on a tablet computer. Jack's goal was to make a building that could stand up to the wind of a nearby table fan. With his cardboard cut, Jack hurried to the assembly area where about two dozen other kids his age labored over teetering, but well-taped, creations. If these first attempts toppled in the breeze, that was to be expected. In fact, back-to-the-drawing-board was kind of the point. The kids were learning the cycle of design, prototype, test, and redesign that's a hallmark of engineering."

"Computational thinking is the thought processes involved in formulating a problem and expressing its solution(s) in such a way that a computer - human or machine - can effectively carry out. Informally, computational thinking describes the mental activity in formulating a problem to admit a computational solution.  The solution can be carried out by a human or machine. This latter point is important.  First, humans compute.  Second, people can learn computational thinking without a machine.  Also, computational thinking is not just about problem solving, but also about problem formulation.1 The Digital Careers organisation says that students need experience and skills in computational thinking and computer programming (coding) to be successful in their future careers.2 The NSW syllabuses provide a range of opportunities to develop students' understanding of computational thinking and coding. This guide draws out the areas where computational thinking can be applied within the existing NSW K-8 syllabuses. Like the syllabuses, it is organised into stages of learning and subdivided into learning areas, with suggested activities and links to online resources. Not all resources and activities listed in this guide refer to coding explicitly, but they do aim to develop algorithmic and computational thinking skills to better enable students and teachers to reach a coding goal."

"One undeniable fact about teaching is that teachers not only need to be masters of content within their subject area, but they must also be masters of education as a subject. Another undeniable fact is that neither of those subject areas looks the same as when any teacher first mastered them. One effect of the integration of technology into our society is that change in almost everything is happening at a pace never before experienced by mankind. As much as some people may yearn for the simpler times of the past, life will continue to move forward as the natural order of society requires. The influence of additional information on any subject often affects how we deal with that subject. Once we had more information on the effects of smoking, smoking habits of millions of people changed. Once we learned what we now understand about the benefits of physical activity, several sports related industries were spawned. Once we learned what we now know of communication, music and print industries disappeared while being replaced with better in many ways."

"So this collection wasn't as easy to curate as it'd seem. It wasn't a matter of simply choosing the best apps across content areas-math, science, social studies, etc. The title says "every iPad," which seems to imply universal needs. Every. iPad. Same with age and grade level, reading level, and gender. So we took at look at apps that could be used in any content area, and at (almost) any grade level K-5. (Phonics Genius likely wouldn't be as necessary in later elementary grades as it might in K-3, for example.) The focus is on literacy, content, and play. An argument could be made that elementary school students may be better served with an Encyclopedia app rather than Google Search. You almost may want something with a subscription as Brainpop has, or a slightly more child-friendly word processor than Pages. Substitute away!"

"My journey into exploring the power of making continues for a 3rd year with two added goals. First,I plan to expand the depth of learning that goes with "making" by creating Maker Connection Logs where students write, take photos, and record short videos to show their thinking while making connections between curriculum areas and their creations. The goal of the "Maker Logs" is for students to be able to give me insight into their creative process, thinking and provide a way for reflecting with the hopes of improving the future process of "making." IMG_3496.JPG My second goal, which I recently accomplished, is to create an "Un-Maker Space." Simply put, a space where kids can take things apart. So many of the creative geniuses I met at the Bay Area Maker Faire two years ago spoke of taking things apart when they were kids. Watching my 3 year old son recently take apart his toy vacuum really solidified this idea for me. We all have this inner drive to create an understanding of the world around us. This is founded in the desire to answer all the "why" and "how" questions in our thoughts. Why did that little wheel spin when I pushed the play button on that cassette player? How did the electricity get from the cord into the monitor and then create a picture? How can I take this apart? So my students will have a space to dissect all the discarded and unwanted items and to ask those questions. In this un-maker space they'll have the chance to explore the possible answers."