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when a student asked Nieto if he could bring his iPod to class, Nieto agreed, and neither teacher nor student has looked back since.

said mobile devices are particularly useful because of the many learning applications and basic language tools, such as spell check and grammar check, which increase the speed of learning. Rather than view the mobile applications as learning shortcuts tantamount to cheating, Nieto sees them as motivational tools that increase his students’ interest in reading and writing by giving them instant feedback. It’s a perspective most of his students seem to share.

as motivational tools that increase his students’ interest in reading and writing by giving them instant feedback.

Initially In many Institutions the move will be crude pedagogically, with an emphasis on video recordIng of lectures and flipped classes, or merely IncreasIng the amount of onlIne learnIng supportIng regular classes. Over time, though, as Instructors get more experience In hybrid learnIng, get more Instructional design support, and greater pressure from the admInistration, full course re-design will Increase, but major redesigns around hybrid learnIng may take as long as five years In many Institutions. One reason for this slow adoption of re-design is the current lack of appropriate models for hybrid learnIng that have been tested and evaluated; this will change though as experience grows. Best practice for hybrid learnIng will emerge, as it did for fully onlIne learnIng.

10. Expect the unexpected: One year: 100%; Three years: 100%; Five years: 100% These are the monsters lurking in the shadows. in online learning, the only thing you can really be certain of is the uncertainty. These are Donald Rumsfeld’s unknown unknowns, so by definition they are unpredictable or non-forecastable. However, there are also some known unknowns that perhaps we should discuss. (MOOCs are good examples – they were known in 2011, but the likelihood that they would take off in 2012 in the way they did was not known, at least by most pundits.) Here are some possible bogeymen to lie awake worrying about:

the privatization of post-secondary education in the USA. Many states are in dire financial trouble. Will this result in some states privatizing their public post-secondary education systems? What price would Alabama State University fetch from a commercial buyer and how would that affect the state’s finances? If some states do decide on privatization, expect online learning to increase – indeed, online learning will likely increase in financially challenged states without privatization, because, rightly or wrongly, it will be seen as cheaper; also expect federal student financial aid to take a hit in the USA as Congress grapples with the deficit. a major internet player (Apple, Google, Facebook or Amazon) jumps into the online learning market, perhaps in partnership with some elite universities, and takes a major share of the for-credit online market, because of lower costs, quality content, and accreditation from elite universities (but with a different category of degree from their on-campus programs) The US Congress backs publishers and shuts down all publicly funded open educational resources; copyright legislation is tightened on US-based internet companies making it all but impossible to use educational resources over the internet for free major power shortages/outages, due to bad weather/a surge in energy prices/political activists (pick your reason) makes online delivery increasingly unreliable during winter quantum computing arrives at a reasonable cost and completely changes the game.

To hear some ed tech enthusiasts tell it, online learning is sweeping aside the barriers that have in the past prevented access to education. But such pronouncements are premature. As it turns out, students often carry these barriers right along with them, from the real world into the virtual one.

These dismally low numbers provide a reminder that “access” to education is more complicated than simply throwing open the digital doors to whoever wants to sign up. So how can we turn the mere availability of online instruction in STEM into true access for female students?

One potential solution to this information-age problem comes from an old-fashioned source: single-sex education. The Online School for Girls, founded in 2009, provides an all-female e-learning experience.

Sam Levin, an alum of Monument who is currently a sophomore at the University of Oxford in England studying biological sciences, started the program in 2010. Frustrated with his public-high-school schedule and realizing that his friends weren’t inspired to learn, Levin complained to his mother about how unhappy he and his classmates were, to which she responded: “Why don’t you just make your own school?” And so he did — albeit in small steps. in ninth grade, Levin started a school-wide garden that was solely cared for by students; some woke up early on Saturdays to work with the plants. The garden is still functioning and serves at-need families in the community. After witnessing the commitment that his classmates had to nurturing something they had created themselves, Levin was convinced that they were capable of putting more time and energy into their studies — as long as it was something they cared about. “I was seeing the exact opposite in school. Kids weren’t even doing the things they needed to do to get credit. There was something at odds with students getting up to work for no credit or money [on the garden] at 7 in the morning, but not wanting to wake up to read or do a science experiment,” says Levin. “I saw the really amazing and powerful things that happened when high school students stepped it up and were excited about something.”

The semester is split in half, with the first nine weeks focused on natural and social sciences. Each Monday morning, the students formulate a question with the help of their classmates. For example, “How are plants from different parts of a mountain different from each other?” or “What causes innovation?” The students spend the rest of the week researching the answer and creating a presentation to summarize their findings to share with their classmates at the end of the week for feedback and critique. The students are in charge of keeping themselves on task, creating their research plans and meeting their deadlines.

By taking ownership of their learning, the students at Monument are forced to think creatively and capitalize on their own talents in order to excel. The class framework is similar to what will be expected of them in college and in the workforce, when they have to make their own educated and independent decisions.

In 2011, game designer Jane McGonigal published Reality is Broken, where she outlIned four simple rules that defIne a game: a goal, rules, a feedback system, and voluntary participation. Both Jeopardy and The History of Biology fit this defInition, but clearly there is a difference between games that teach the recall of facts and those that teach higher-order thInkIng skills.

esame Workshop, published a paper in 2011 called “Games for a Digital Age.” They distinguish between short-form games, “which provide tools for practice and focused concepts,” and long-form games, “which are focused on higher order thinking skills.” This is a useful first distinction teachers can use when evaluating games for use in the classroom.

A theme that comes up with teachers who use long-form video games is teaching empathy. “When I first started teaching natural disasters in Grade 7, there were case studies in the textbook, or videos,” says Mike Farley, a high-school teacher at the University of Toronto Schools (UTS). “When we invite students to play a simulation like Stop Disasters or inside the Haiti Earthquake, they are more immersed; there’s more of an emotional learning.”

Gamification is the process by which teachers use video game design principals in learning environments. The effects are increased student engagement, class wide enjoyment of academic lessons, and high levels of buy-in, even from your most reluctant learners.

Components of Gamifying the Classroom There are several aspects of video-game design that can be incorporated into the gamified classroom. Here are several:

Points: in video games, users gain points as the travel through their quests. The more time they invest in the game the more points they earn

ust as advances in technology enabled the growth of science, the extremely rapid growth of technology we’re experiencing today is impacting our perspectives, tools, and priorities now. But beyond some mild clamor for a focus on “STEM,” there have been only minor changes in how we think of content–this is spite of extraordinary changes in how students connect, access data, and function on a daily basis.

What kind of changes might we expect in a perfect-but-still-classroom-and-content-based world? What might students learn in the future? Of course any response at all is pure speculation, but if we draw an arc from classical approaches to the Dewey approach to what might be next–factoring in technology change, social values, and criticisms of the current model–we may get a pretty decent answer. This assumes, of course a few things (all of which may be untrue): 1. We’ll still teach content 2. That content will be a mix of skills and knowledge 3. Said skills and knowledge will be thematically arranged into “content areas”

The Content Of The Future: 8 Content Areas For Tomorrow’s Students 1. Literacy Big Idea: Reading and writing in physical & digital spaces Examples of traditional ideas and academic content areas included: Grammar, Word Parts, Greek & Latin Roots, The Writing Process, Fluency; all traditional content areas 2. Patterns Big Idea: How and why patterns emerge everywhere under careful study Examples of traditional ideas and academic content areas include: Grammar, Literature, Math, Geometry, Music, Art, Social Studies, Astronomy 3. Systems Big Idea: The universe—and every single thing in it–is made of systems, and systems are made of parts. Examples of traditional ideas and academic content areas include: Grammar, Law, Medicine, Science, Math, Music, Art, Social Studies, History, Anthropology, Engineering, Biology; all traditional content areas by definition (they’re systems, yes?) 4. Design Big Idea: Marrying creative and analytical thought Examples of traditional ideas and academic content areas include: Literature, Creativity, Art, Music, Engineering, Geometry 5. Citizenship Big Idea: Responding to interdependence Examples of traditional ideas and academic content areas include: Literature, Social Studies, History; Civics, Government, Theology 6. Data Big Idea: Recognizing & using information in traditional & non-traditional forms Examples of traditional ideas and academic content areas include: Math, Geometry, Science, Engineering, Biology; 7. Research Big Idea: Identifying, evaluating, and synthesizing diverse ideas Examples of traditional ideas and academic content areas include: English, Math, Science; Humanities 8. Philosophy Big Idea: The nuance of thought Examples of traditional ideas and academic content areas include: Ethics, Literature/Poetry, Art, Music; Humanities

compiled resource page of the Flipped Classroom (with videos and links) can be found at http://www.scoop.it/t/the-flipped-classroom

Cisco in a recent white paper, Video: How interactivity and Rich Media Change Teaching and Learning, presents the benefits of video in the classroom: Establishes dialogue and idea exchange between students, educators, and subject matter experts regardless of locations. Lectures become homework and class time is used for collaborative student work, experiential exercises, debate, and lab work. Extends access to scarce resources, such as specialized teachers and courses, to more students, allowing them to learn from the best sources and maintain access to challenging curriculum. Enables students to access courses at higher-level institutions, allowing them to progress at their own pace. Prepares students for a future as global citizens. Allows them to meet students and teachers from around the world to experience their culture, language, ideas, and shared experiences. Allows students with multiple learning styles and abilities to learn at their own pace and through traditional models.

Expert coaches uniformly avoid overloading performers with too much or too technical information. They tell the performers one important thing they noticed that, if changed, will likely yield immediate and noticeable improvement ("I was confused about who was talking in the dialogue you wrote in this paragraph"). They don't offer advice until they make sure the performer understands the importance of what they saw.

I say "in most cases" to allow for situations like playing a piano piece in a recital. I don't want my teacher or the audience barking out feedback as I perform. That's why it is more precise to say that good feedback is "timely" rather than "immediate."

You cannot simply swap out the word, “problem” with “opportunity”; your thinking has to shift that way.  For example, a subtle change in the question, “When am I going to have time to do this?”, to, “How would I work this into my day in a meaningful way?”, changes the way we frame what is in front of us.  One question is looking for ways things won’t work, and the other is trying to find a way.

A subtle change in language, can change how we move forward, and how we tackle the challenges  embrace the opportunities in front of us.

Let's start with the secondary system. As this level of education becomes significantly student focused, there are many of us in the system who fear we are coddling students in the extreme and not preparing them at all for the realities of the work world or college/university. Here are samples of policies, largely instituted by the Ministry of Education, that added together, have lead to concerns re: coddling.

•Late work: Student work is not penalized for lateness. Late work is viewed as a behavioural issue, not an academic one. •Plagiarism: This is also seen as a behavioural issue, and usually does not result in any academic penalty, even in a grade 12 University level course. •Evaluation: Policies are moving away from grades being derived from an average of all student assignments in favour of a more general approach that reflects "most recent and/or most consistent" achievement. •Lower limits: Students getting failing grades are assessed by this policy which requires teachers to give a mark of 30 to students who are, on paper, achieving anywhere from 1-29 per cent. This is designed to 'give them hope' of success. •Credit rescue/recovery: A policy designed to give students who fail a course the opportunity to make up key missed work with the goal of achieving a passing grade. •Memorization: The idea of students actually memorizing material is viewed as "old fashioned" and is rejected in favour of "inquiry based learning'." The world of the university student is decidedly different, as evidenced by their policies. •Late work: Most courses do not accept late work. Period. •Plagiarism: This is viewed as academic dishonesty, and harsh academic penalties are in place. •Evaluation: Most courses feature few evaluations that are weighted heavily, and grades are based on the average of all assignments. •Evaluation: The move toward knowledge-based evaluation is epidemic. Exams, even in courses like literature studies and philosophy, are commonly multiple choice and short answer exams.

•If students are trained for the 14 years they attend school that there really are few consequences to academic problems, how will they fare in the much more rigorous world of post-secondary education? A history professor recently asked me what we (high school teachers) were doing to our kids.

Finally, technology is embedded into the structure of all we do. It’s part of how we research, how we capture information, and how we display our learning. It’s never an accessory tacked on at the end.

My students started by creating a Flickr feed, Facebook page, a YouTube account, a Tumblr blog, and a Twitter account. They decided that visual representations of their knowledge would be the most powerful. So some of my students created photographs depicting images that they felt best represented modern trafficking. These photos were then edited in Picnik, and posted to our blog.

A few years ago I tried to teach this idea to a grade 12 class when we were studying essay writing. They didn’t get it. But in the context we were using, after comparing social media content, it made perfect sense to my grade 11 students.

Good self-control has also been shown to be a key component of grit — perseverance in the face of educational challenges. It’s no wonder, then, that colleges have placed great emphasis on teaching students better self-control.

But the strategies that educators are recommending to build that self-control — a reliance on willpower and executive function to suppress emotions and desires for immediate pleasures — are precisely the wrong ones. Besides having a poor long-term success rate in general, the effectiveness of willpower drops precipitously when people are feeling tired, anxious, or stressed. And, unfortunately, that is exactly how many of today’s students often find themselves.

Efforts to emphasize willpower and executive function to achieve self-control are largely ineffective in helping those students.

This is not an isolated event—schools across the country regularly ban finger use in classrooms or communicate to students that they are babyish. This is despite a compelling and rather surprising branch of neuroscience that shows the importance of an area of our brain that “sees” fingers, well beyond the time and age that people use their fingers to count.

Remarkably, brain researchers know that we “see” a representation of our fingers in our brains, even when we do not use fingers in a calculation

Evidence from both behavioral and neuroscience studies shows that when people receive training on ways to perceive and represent their own fingers, they get better at doing so, which leads to higher mathematics achievement. The tasks we have developed for use in schools and homes (see below) are based on the training programs researchers use to improve finger-perception quality.

In the global perspective, the FInnish education system seems to be a paradox. When much of the rest of the world is implementIng more oversight of schools to assure teachers meet specific goals, lengthenIng the school day, toughenIng academic standards, and IncreasIng homework, FInnish children contInue to enjoy a relatively short school day, a broad curriculum, and a light homework load. In addition, FInnish children do not attend private tutorIng sessions or spend any time preparIng for standardized tests, as so many of their peers around the world must.

Perhaps the most surprising part of the Finnish educational philosophy is the central role of play in children’s lives, both in and out of school. Formal learning doesn’t start before the first grade when children are seven years old. Before that, children spend their time in play to develop a sense of independence and responsibility, and to learn about themselves and others. in the early years of elementary education, children furthermore learn to read and do math through various forms of play, music, and drama.  The old adage of “less is more” is carried out every day in Finnish schools, as I describe in “Finnish Lessons: What can the world learn from educational change in Finland” (2011).

Finland’s success is a result of finding its own way of change rather than doing more of the same than others. This is particularly true in enhancing educational quality and equity.  Some foreign observers claim that Finnish educational success results from the country’s smallness, cultural homogeneity, and wealth. Those thinking this way often fail to distinguish the Finnish way from the global education reform movement (or GERM) that sees competition, standardization, frequent testing, and privatization as the most effective drivers of change.