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Showing posts with label Ed Tech. Show all posts
Showing posts with label Ed Tech. Show all posts

Wednesday, October 9, 2019

Google for Education Report on 8 Trends in Learning

Google for Education Report on 8 Trends in Learning


A new report from Google for Education concludes  “You cannot introduce tech successfully by disrupting the relationship between the teacher and the student. The introduction of tech will have to take place in the context of the fundamental human interaction in the classroom.”  This approach was emphasized by Karl Nelson of Illustrative Math, who I spent an hour with yesterday learning about their experience selling core and supplemental math instructional materials.

Wednesday, March 15, 2017

Survey Says 86 Percent of Schools Expect to Spend More on Digital Curriculum


Investment in digital is rising, and schools need to prepare teachers and students for its adoption.


With 78 percent of students using a digital device for large portion of their school day, it should come as no surprise that 86 percent of K–12 schools are looking to spend more this year on digital curriculum.
These are findings from The Learning Counsel’s most recent Digital Curriculum Strategy Survey. In it, the research institute that studies and writes about digital curricula in education found that the digital courseware market is maturing, as spending shifts from individual teacher investments to districtwide spending.
Another survey, conducted last April by OverDrive and ASCD, found that 80 percent of schools and districts use some form of digital content in the classroom.
However, both surveys found that only a small portion of educators are using digital resources as the primary source for teaching.
Though spending on these tools might increase, schools now must work to find the return on investment, prepare teachers for new tools and address the digital equity issues that might exist.
“They actually access that curriculum and work at their pace,” Mike Hickman, an assistant superintendent of teaching and learning, told the Telegraph.
Concern about the lack of internet access at home was found to be one of the biggest barriers to adoption of digital curriculum, the OverDrive and ASCD survey reports.
Monroe County Schools had this is mind when developing its program. The Telegraph reports that before rolling out any digital curriculum, the district conducted a survey and found that a majority of students had internet access at home. For those who didn’t, alternative options were developed so they wouldn’t be left behind.
Many educators find the appeal of digital curriculum to be a no-brainer, writes Amy Brown, a K–12 education strategist for CDW·G, on EdTech.
“I’ve heard educators heap praise on the interactive, multimedia content for its ability to engage students in new and interesting ways,” writes Brown.
However, Brown indicates that schools will only get the most out of these options by ensuring that educators get proper training and professional development.
“Educators need to understand how classroom devices function,” she writes, “and how digital resources fit into the classroom.”

Friday, February 3, 2017

Why do we still talk about inBloom?

Assessing the Legacy of inBloom


Why do we still talk about inBloom? Why is it important?
Today Data & Society is releasing a new report – The Legacy of inBloom – which takes up these questions. Coauthors Monica Bulger, Patrick McCormick, and Mikaela Pitcan engaged in a year-long series of interviews and research to map the story of inBloom and its closure, which ignited a public discussion of student data privacy and has become the legacy any future edtech project will have to contend with.
What they found was a disconnect between Silicon Valley-style agile software development methods and the slower moving, more risk-averse approaches of states and school districts. inBloom itself incorporated conflicting approaches, proceeding now as startup, now as established firm, now as nonprofit. Despite considerable funding and resources, inBloom’s internal inconsistencies contributed to the initiative’s failure to communicate the benefits of its platform and achieve buy-in from key stakeholders.
“Ultimately, inBloom lacked a clear story of its benefits for teaching and learning,” said Monica Bulger, one of the coauthors of the report, “so it did not get the necessary buy-in from parents and schools. The legacy of inBloom matters because most current edtech platforms would fail the rigorous checklist applied to inBloom. Most current iterations are not transparent about their data use, do not resolve issues of data security, and fail to provide interoperability across platforms.”
In the wake of inBloom, 400 pieces of state-level legislation around student data privacy have been introduced, and the trend in data-driven educational technologies has since been toward piecemeal adoption of closed, proprietary systems instead of a multi-state, open source platform.
“InBloom was the moonshot of edtech and personalized learning,” concludes Patrick McCormick, one of the coauthors of the report. “The shared platform was intended to shatter barriers to data interoperability, lower costs, and unleash new opportunities for data driven instruction that could better address individual student needs. But ultimately inBloom’s audacious effort to transform education made privacy and security risks easier to grasp than any end goal. We hope that this examination of external and internal factors contributing to inBloom’s demise will inform ongoing strategies to bring innovation to K-12 education.”
The Legacy of inBloom tells the story of inBloom and assesses its legacy in a way that will be helpful for the range of people – teachers, administrators, parents, developers – thinking about and working on edtech and student data privacy.
Data & Society is also expanding the conversation with a set of guest posts reflecting on the report – in our Points publication:
As always, we welcome your feedback: feedback at data society dot net.

Thursday, January 26, 2017

How to Use Edtech to Get Your Learners Active and Moving

Shutterstock / Hurst Photo
Winter weather sometimes means nasty rain and snowstorms, indoor recess, and less physical activity for our students. But instead of dusting off the DVDs buried in your desk drawer, consider using these edtech-powered ideas to get your learners’ bodies moving and brains working.

Open Class With “Activators”

Teachers do not have to wait until the bell rings or until they have formally addressed the class to get their students’ learning started. They can have an enticing challenge waiting for students as they enter the room. I like to call these challenges “activators” because they activate curiosity, thinking, and problem-solving in students’ brains. Certain edtech tools allow the teacher to use a dashboard to track student progress in real time, including:
  • Socrative from MasteryConnect: This has been a go-to for teachers for years because of its simple interface that allows teachers to create assessments in advance or on-the-fly. Socrative’s free version does not require students to create accounts.
  • Formative: This tool and its varied question types fit more content areas (even advanced math and science) than most other platforms. It also boasts Google Classroom integration.
  • Pear Deck: This platform has a new dashboard in beta that users can activate in the add-ons section, meaning it is easier for students to engage in self-paced activities.
These three platforms offer great options for providing students with engaging and challenging activities to look forward to immediately upon entering your classroom. Just project the necessary codes onto a screen at the front of the room, and watch students dive in.

A Little Healthy Competition and Movement

Review games often inject energy into a classroom before a test, and right when students need a jolt of energy to get that over that summative assessment hump at the end of a unit. Activities that push students to work in teams and use their combined knowledge and skills to achieve the best results will add noise and movement to your classroom, as well. Here are a few tools to consider using in the process.
  • Kahoot! is a go-to because the music alone gets students moving. From upper elementary to 12th grade, students are unable to resist standing up, moving around the room, and even cheering at the results.
  • A common tool seen in the world language and social studies classrooms at my school is Quizlet Live. Students are up and moving, talking, and cooperating to compete with their classmates to answer the quiz-like questions.
It is worth noting that both of these tools offer modes for self-paced studying and learning. Engaging students in modes that include bright colors, music, and even competition is only appropriate when they are already relatively confident with the material. Try those other modes when students are first learning content and need to practice at a pace that’s right for them.

Explore the Hallways

After notifying administrators–just to ensure there isn’t some other school event that would interfere–use edtech tools and students’ mobile devices to move the lesson beyond your classroom walls and spill into the hallways. Depending on your students’ skill level and the time you can dedicate to the adventure, here are three approaches.
  • Teachers can create scavenger hunts with Klikaklu. Even before Pokemon Go, teachers were creating indoor and outdoor scavenger hunts for their students with this tool. Just scan in images of objects and places you want your students to visit; they will find that object based on learning clues you set up to be revealed in the app as they go.
  • Students can work together as a class to create their own scavenger hunt with QR codes. I recommend i-nigma as a free QR code scanner due to it’s speed and ease of use. Students can do their own research, and then make it accessible to their classmates via a jaunt through the hallways using the steps detailed here. (Not a fan of i-nigma? Just Google “QR code creator” to find a wide array of free generator tools.)
  • Augmented reality is another option. Students or teachers can trigger videos, articles, or other content to appear when scanning preselected images. Try this kind of scavenger hunt at your school’s next art show. Aurasma is a great go-to tool for creating your own augmented reality experiences. You can find even more ideas in Monica Burns’s recent book Deeper Learning with QR Codes and Augmented Reality.

Brain Breaks

Brain breaks help learners to re-energize when they are in an energy slump or refocus when they have become distracted. Whether it is with silly songs and dancing or classroom yoga, edtech products can help.
  • Students can refocus their brains and bodies with breathing and stretching thanks to amaZEN U. There are sample videos to try out with you class right on the homepage, as well as a monthlong free trial available to all teachers.
  • A favorite in my own home with my second grader and preschooler is GoNoodle. When young learners have the post-lunch slump or deserve a reward for nailing that tough Common Core math activity, a song and dance–mixed with a little dose of empowerment–is just what they need.
Teaching mindfulness and self-control is such an important part of encouraging young learners to self-advocate and push themselves through frustrating moments. These services can provide the content and motivation to help your students when they need a mental and/or physical boost.
Do not let winter’s cold temperatures and wet storms keep your students from learning with activity and movement. Rather, facilitate a more physical and focused learning experience—particularly when the winter blues have settled in.

Kerry Gallagher (@KerryHawk02) is a Digital Learning Specialist at a 1:1 iPad school serving 1500 students grades 6-12. She is also the Director of K-12 Education for ConnectSafely.org, and an EdSurge columnist.

Monday, October 10, 2016

Jeff Sacks - Smart machines and the future of jobs

Smart machines
and the future of jobs
By Jeffrey D. Sachs

Since the early 1800s, several waves of technological change have transformed how we work and live. Each new technological marvel — the steam engine, railroad, ocean steamship, telegraph, harvester, automobile, radio, airplane, TV, computer, satellite, mobile phone, and now the Internet — has changed our home lives, communities, workplaces, schools, and leisure time. For two centuries we’ve asked whether ever-more-powerful machines would free us from drudgery or would instead enslave us.

 The question is becoming urgent. IBM’s Deep Blue and other chess-playing computers now routinely beat the world’s chess champions. Google’s DeepMind defeated the European Go champion late last year. IBM’s Watson has gone from becoming the world’s “Jeopardy’’ champion to becoming an expert medical diagnostician. Self-driving cars on the streets of Pittsburgh are on the verge of displacing Uber drivers. And Baxter, the industrial robot, is carrying out an expanding range of assembly-line and warehouse operations. Will the coming generations of smart machines deliver us leisure and well-being or joblessness and falling wages?

 The answer to this question is not simple. There is neither a consensus nor deep understanding of the future of jobs in an economy increasingly built on smart machines. The machines have gotten much smarter so fast that their implications for the future of work, home life, schooling, and leisure are a matter of open speculation.

 We need to pursue policies so that the coming generation of smart machines works for us, and our well-being, rather than humanity working for the machines and the few who control their operating systems.

 In a way, the economic effects of smarter machines are akin to the economic effects of international trade. Trade expands the nation’s economic pie but also changes how the pie is divided. Smart machines do the same. In the past, smarter machines have expanded the economic pie and shifted jobs and earnings away from low-skilled workers to high-skilled workers. In the future, robots and artificial intelligence are likely to shift national income from all types of workers toward capitalists and from the young to the old.

 CONSIDER ENGLAND’S Industrial Revolution in the first part of the 19th century, when James Watt’s steam engine, the mechanization of textile production, and the railroad created the first industrial society. No doubt the economic pie expanded remarkably. England’s national income roughly doubled from 1820 to 1860. Yet traditional weavers were thrown out of their jobs; the Luddites, an early movement of English workers, tried to smash the machines that were impoverishing them; and poet William Blake wrote of the “dark Satanic mills’’ of the new industrial society. An enlarging economic pie, yes; a new prosperity shared by all, decidedly not.

 Looking back at two centuries of more and more powerful machines (and the accompanying technologies and systems to operate them), we can see one overarching truth: Technological advances made the society much richer but also continually reshuffled the winners and losers. Similarly, one overarching pattern was repeatedly replayed. The march of technology has favored those with more education and training. Smart machines require well-trained specialists to operate them. An expanded economic pie favors those with managerial and professional skills who can navigate the complexities of finance, administration, management, and technological systems.

 Overall, better machines caused national income to soar and the man-hours spent in hard physical labor to decline markedly. Seventy-hour workweeks in 1870 have become 35-hour workweeks today. An average of around six years of schooling has become an average of 17 years. With increasing longevity, most workers can now look forward to a decade or more of retirement years, an idea simply unimaginable in the late 19th century. It’s amazing to reflect that for Americans 15 years and over, the average time at work each day is now just 3 hours 11 minutes. Those at work average 7 hours and 34 minutes, but only 42.1 percent of Americans 15 and over are at work on an average day. The rest of the time, other than sleep and personal care, is taken up with schooling, retirement, caring for children, leisure and sports, shopping, and household activities.

 Smart machines in the 19th century provided massive power (the steam engine), transport (rail, steamships, automobiles), information (telegraph), and material transformation (steel and textile mills), and also, crucially, a more and more powerful substitute for human brawn – that is, backbreaking physical labor — on the farm and in the mines. Seed drills, cotton gins, threshers, reapers, combined harvesters, and by the early 20th century, tractors, not only opened up vast new farmlands but also replaced millions of farm workers by machines. Mechanical cotton pickers in the early decades of the 20th century displaced millions of African-American sharecroppers on Southern farms and contributed to the great African-American migration to northern cities.

 Hard physical labor declined as machines did more and more of this work; but so too did jobs and earnings for lower-skilled workers. Those lucky to get an education could obtain the higher skills needed for the new jobs. Those who could not suffered stagnant or falling wages and a further loss of social status. In the past two decades, more and more low-skilled men have simply dropped out of the labor force entirely.

 The most important policy response is to ensure that students stay in school long enough to achieve the skills they need for the new and better jobs. As long as the national supply of skilled workers roughly keeps pace with the rising demand for skilled workers, while the supply of low-skilled workers declines in line with the decline in the numbers of low-skilled jobs, the gap in earnings between high- and low-skilled workers remains relatively stable. In this way, the rising school attainments of Americans during the 20th century roughly maintained a balance with the shift from low-skilled work to high-skilled work.

 Yet after around 1980, the earnings of highly educated workers (notably, those with bachelor’s degrees and higher) increased sharply relative to less-educated workers (those with high-school diplomas or less). Greater international trade and offshoring probably had a role in this, and so did technology, with smarter machines replacing high-school-educated workers in a widening range of manual and repetitive tasks. The shift of the labor force toward higher-skilled workers wasn’t fast enough in recent decades. Many American lower-skilled workers have been hit hard by lost jobs and falling wages.

 YET TODAY’S smart machines now are not just replacing brawn but also brains. The futurist Ray Kurzweil and others have popularized the term “singularity’’ to mean a time in the near future when machines are simply better than humans at just about everything: moving, assembling, driving, writing, calculating, war-making, teaching (yikes!), and the rest.

 Several recent studies, including at Oxford University and McKinsey, have tried to estimate the share of jobs that are likely to be up for grabs by smart machines in the next 20 or so years. Each occupation is analyzed for the kinds of tasks needed. Are they highly repetitive or highly context-specific? Do they require highly specialized mechanical skills, a high degree of interaction with others, or a high measure of emotional empathy? And so on. From this categorization of job tasks, the researchers estimate the share of jobs that can be substituted by robots and artificial intelligence systems. Their answer: Roughly half of today’s jobs are susceptible to at least some kinds of replacement by smart machines.

 The implications are a bit tricky. On the one hand, smarter machines mean more economic output and, in principle, a larger economic pie to share among the American people. Investing in machines, or in the companies that produce the smart systems that run them, would seem to offer high returns; capital owners would be very likely to benefit. On the other hand, smarter machines could mean a decline in the demand for workers. Young people with labor to sell but little wealth to invest could find themselves on the short end of the economic stick, with lower wages and no grand prospect of benefiting from the higher returns to capital. Older and richer Americans would tend to benefit, younger and poorer Americans would tend to fall behind.

 This would not be the end of the story, however. If today’s young people find themselves without jobs, they not only will be poorer, but will also save less as a result of shrunken incomes. Yes, the smarter machines will offer a higher return to saving, but the supply of national saving will shrink. A careful theoretical analysis reveals a stark truth: Smart machines could actually set in motion a downward spiral, wherein today’s young workers can’t find decent jobs, and thereby cut back on their saving, which in turn leaves the following generation of young workers even worse off.

 This is indeed a frightening vision. And yet the same analysis suggests a way out. If the rich capital owners transfer some of their windfall profits to the struggling young workers, then both the old rich and the young poor would be better off with the smart machines than without them. In effect, the rich older shareholders would compensate the poor younger workers in order to offset the fall in wages.

 There are two ways this “offset’’ could happen. Within families, parents could transfer some of their increased wealth to their children; but alas, that is a solution that is likely to be relevant mainly for richer households.

 For the non-rich, the real solution could and should be achieved through fiscal policy. Rich older shareholders should be taxed in order to make transfer payments to the poorer, young workers.

 Such transfer payments could be carried out in many ways: a cut in payroll taxes; tuition-free higher education; an expansion of the Earned Income Tax Credit (EITC) for low-wage workers; or a “reverse’’ Social Security system with payments from the old to the young. One policy that has been suggested is a capital grant to every newborn, financed by a wealth tax. In essence, each newborn would receive a robot (or financial claim to one) at birth.

 THE NEW AGE of smart machines has already seen a shift in national income away from wages and toward profits. In automobile manufacturing, for example, where robots have already displaced many assembly-line workers, the share of wage compensation in the industry’s value-added has tumbled from 57 percent in 1997 to 47 percent in 2014. For the economy as a whole, a recent study reports a decline in the labor share of national income from around 68 percent in 1947 to 60 percent in 2013. The shift toward capital income seems to be well underway, and would seem to be a key factor in America’s sharply higher inequality of income. As machines become even smarter in future years, the economy-wide shift from wage income to profit income is likely to continue.

 In addition to income redistribution from capital owners to workers (and from old to young) there are three other steps we should plan to take.

 First, as old jobs disappear and new ones are created, we should emulate Germany’s successful apprenticeship programs, which train young workers in the skills needed in the economy. The President’s Council of Economic Advisers has rightly emphasized the need for scaling up this kind of active training.

 Second, we should prepare for a workforce in which workers will change jobs with much greater frequency than in the past. In an age of disruptive technology, we should plan for disruption. Changing jobs should be regarded as normal; training and skill upgrading should be life long, and health care and other benefits should follow workers, not jobs.

 Third, and finally, let us remember that ever-smarter machines could enable us to enjoy much more leisure time, and more hours of the day at valuable but nonremunerated activities and volunteer work.

 Suppose that singularity indeed arrives, so that robots and expert systems really do perform all the unpleasant and humdrum work of the economy. As long as fiscal policies ensure that everybody, young and old, can share in the bounty, the results could be a 21st-century society in which we have much more time — and take more time — to learn, study, create, innovate, and enjoy and protect nature and each other.


 Jeffrey D. Sachs is University Professor and Director of the Center for Sustainable Development at Columbia University, and author of “The Age of Sustainable Development.’’  

Thursday, July 14, 2016

Google slammed over its 'free' school service

Google slammed over its 'free' school service

Sweden sour – source


Two Swedish researchers have torn into Google's free school service, accusing the online giant of purposefully misleading users in order to continue profiting from the sale of children's data.
Maria Lindh and Jan Nolin from the University of BorÃ¥s have published a research paper [note: paid access] that digs into the policies around the Google Apps for Education (GAFE) service, and concluded that it has gone to some lengths to "conceal" the business model from school administrators.
By using a range of rhetorical devices and misleading definitions, the company is able to advertise that GAFE will not include any ads and "your data is yours," while at the same time selling the information it accumulates to advertisers for significant profit, they conclude.
"Educators and pupils become reconfigured as targets for data mining, tracking and measurement," the paper argues.
One of the key distinctions comes in Google's own fluid definitions of "data" and "information," which it uses to make bold claims while actually doing what many perceive is the opposite of what they have understood. The other key term is "processing."
"Google processes your data to fulfill our contractual obligation to deliver our services," it states, adding: "Google's customers own their data, not Google."
It goes on: "The data that companies, schools and students put into our systems is theirs. Google does not sell your data to third parties."

And then

Which all sounds very convincing until you start reading Google's "Data Processing Amendment" and other official documents relating to the GAFE service. Lindh and Nolin state they were struck by how the company carefully phrased them to hide true intent.
They note that the company is under a legal obligation to say that it commercially exploits its "constantly expanding archive" – ie, all the information it accumulates from people using the service – but that it goes to some lengths to hide the reality of the situation.
"Several segments of the policy texts state clearly, or so it seems, that the archive is not exploited, ie, we do not sell your data," says the paper. But thanks to how Google chooses to define "data," that is not true. "Central terms, such as processing user data or content, are not explained," they note. And important information is hidden or left out.
The sale of data is frequently framed as something that is done to improve services or user experience, and its commercial value is not touched upon.
By contrast, the real business model is "belittled or framed as a minor aspect of what Google does." And when the company provides "examples" of what its policies mean in reality, it provides ones that don't cover the less savory aspects of what actually happens. "Google's systematic approach of giving one example connected to each claim is therefore misleading in more than one way," the paper notes.
They conclude: "It is obvious that Google talks in different voices, deliberately wanting to make their business model less obvious for users, who mostly do not look deeply into Google's policies in any case."

Split

The authors paint a distinction between Google's back-end and front-end models: where the front end is free – services for schools – and the back-end is where it makes its money: "information packaged for profit."
GAFE itself is a cloud-based service that bundles several Google services, including Google Classroom, Gmail, Google Drive/Calendar/Docs/Presentation/Sites and others, and provides them for free to schools.
Google says it has 50 million students, teachers and administrators using GAFE, and price is a major reason why.
"We came up with a suggestion that instantaneously would lower costs by one million," one former CEO of a Swedish education establishment told the researchers, despite having reservations about its legality, security, sales of data and tracking by Google. "Yes, but then what? The next item on the agenda! These are decisions that make themselves."
But, the authors argue, Google is able to say it does not sell its users' "data" – but it is not the day-to-day data it profits from, but rather the longer-term "monitoring of behavior" where it creates "algorithmic identities of individual users" by combining collected and personal information.
Those "algorithmic identities" then become of enormous value and are used commercially but not "sold" to third parties – allowing for the seemingly clear language about what happens to students' data.
With the soothing language about Google not selling the information, the teachers and administrators that the authors talked to were more than happy to take on the benefits that comes from Google's services.
Not only is the service free, but it is well-managed and run (no more constantly dealing with a small and impossible IT department), and brings novel advantages.
Several teachers noted, for example, that they were able to watch the progress of their students' work. This not only helped clamp down on bad practices – such as the pasting of an entire paragraph (plagiarism?) or poor planning (three weeks to do the assignment and the document is created the night before) – but it also helps teachers see their students' thought processes and so both better understand and assist them in their learning, and save the teachers from the dreaded arrival of a stack of finished essays on the final day.

Regulator

The question, though, is whether these advantages outweigh the fact that one company is able to build up commercially valuable information on students, which Google can most likely continue over when they stop using the school system because of their multiple tie-ins with other Google services.
Where are the regulators in this case? Trying their best. The Swedish Data Inspection Board brought an injunction against the first municipality to implement GAFE, Salem, in 2011 arguing that its pupils' privacy was under threat by the users of Google software.
Four years later, and the "shortcomings in the agreement with Google" had finally been resolved. In March last year it said: "We can confirm that the flaws in the agreement that we have pointed out before have now been remedied."
But, it also noted that it was now reviewing the agreement to see if there were any more issues. Critically, it noted that it "has not yet examined the processing of sensitive personal data in a cloud service."
In other words, the topic of this entire paper in which it concluded Google was purposefully misleading people over what it was actually doing with their personal data. ®

Sunday, June 14, 2015

This is what I am looking for

Now imagine what this might look like in practice. Students come to school and learn through a variety of face-to-face and online activities. As they learn, they are given opportunities to practice and demonstrate their learning and receive feedback on an ongoing basis. When they complete learning activities that require them to use basic factual or procedural knowledge, software evaluates their performance and provides immediate feedback. When they complete learning activities that require deeper levels of understanding, analysis, and critical thinking, the learning platform captures their performance (in video, audio, written, or other formats) and immediately sends it to expert graders who score their work and provide feedback to help the students improveme. Then, as students progress through the platform’s learning activities, the results from both the machine-graded and human-graded standardized assessment items are incorporated to create a complete and robust picture of the students’ mastery of learning standards.

From Thomas Arnett June 12, 2015 post on The key to rigorous online assessments at Christensen Institute

- See more at: http://www.christenseninstitute.org/the-key-to-rigorous-online-assessments/#sthash.fGgg3fIb.dpuf

Thursday, December 18, 2014

Horn on Blended Learning



Education Week
Published Online: December 9, 2014
Blended Learning Is About More Than Technology
By Michael B. Horn & Heather Staker



Battles between different philosophical camps in education are nothing new.

Whether it's knowledge vs. skills, memorization vs. project-based learning, small schools vs. comprehensive ones, the debates in education are often framed as a choice between "either-ors."

From John Dewey to Chester E. Finn Jr., countless education researchers have documented the fallacies in these dichotomies and the dangers of being too beholden to an "-ism," as Dewey wrote.

Many educators sense the folly as well. They know that at different times and in different circumstances, different approaches are best for students.

Despite this understanding, teachers are often handcuffed in their ability to steer their way toward a pragmatic middle ground. With limited blocks of time in a public school day and a set curriculum to work their way through, as well as the need to serve many students, each with unique learning needs, teachers must make trade-offs. More of one thing means less of another.

Blended learning—the mix of online and in-school learning—represents a way to break away from the trade-offs mentality, as Harvard Business School professor Clayton Christensen explains in the foreword to our new book, Blended: Using Disruptive Innovation to Improve Schools. (Christensen is also the co-founder, with Michael B. Horn, of the Christensen Institute, where both of us work.)

Done right, blended learning breaks through the barriers of the use of time, place, path to understanding, and pace to allow each student to work according to his or her particular needs—whether that be in a group or alone, on practice problems or projects, online or offline. It preserves the benefits of the old and provides new benefits—personalization, access and equity, and cost control.

The question is how educators can capture these benefits. Blended learning is not inherently good or bad. It is a pathway to student-centered learning at scale to allow each child to achieve his or her fullest potential, but it is not a guaranteed success.

More generally, too many schools have crammed computers into their classrooms over the years—spending many billions of dollars, with little to show for it. It is not unusual to see a district adopt educational technology only to see costs rise and student achievement decline.

So, how to proceed? The first rule is simple, even if it is counterintuitive. Do not start with the technology.

Instead, schools should follow a tried-and-true design process to innovate successfully. The first step is to pick a rallying cry by identifying the problem to solve or the goal to achieve. Some problems relate to serving mainstream students in core subjects, while others arise because of gaps at the margins—where schools cannot offer a particular course, for example. Both areas are worthy of innovation. In either case, though, the problem or goal must not be about technology—such as trying to solve a "lack of devices"—and lead to a deployment of technology for technology's sake.

"Blended learning is not inherently good or bad. It is a pathway to student-centered learning at scale."

With the problem or goal identified, it is important to state it in a "SMART" way—specific, measurable, assignable, realistic, and time-related—such that an organization will unambiguously know what success is and if it has been realized.

One common mistake is failing to bring the right people to the table to lead the effort. The result is that teachers are either stuck with tasks beyond their reach or too much bureaucratic oversight. Schools must match the right type of team and the right people to the scope of the problem.

The Milpitas, Calif., school district, for example, has created coordinating teams to support teachers innovating within their classrooms, and brought together heavyweight schoolwide design teams to rethink the very structure of some of their schools.

With the rallying cry in place and the right team organized, it is time to design. The starting point is to look at school from the viewpoint of students to understand what they are trying to accomplish in their lives and thus what motivates them. When leaders get the design right from their pupils' perspective, such that young people feel that school aligns perfectly with the things that matter to them, students arrive in class eager to learn.

This is not to say that educators should not instill certain core knowledge, skills, and dispositions in students, but that to accomplish these objectives seamlessly, schools should be intrinsically motivating. This means not only understanding what students are trying to accomplish, but also understanding the experiences they need to get those jobs done, and then assembling the right resources and integrating them in the right way to deliver those experiences.

We know that teachers are a crucial part of the student experience. But to gain teachers' buy-in, schools must work for teachers as well, which is why designing the teacher experience is the next step. Teachers have personal jobs to do in their lives, and the magic happens when schools offer experiences that are fulfilling for both students and teachers. Ensuring that teachers have opportunities to achieve, receive recognition, exercise responsibility, and advance and grow in their careers is critical. To provide teachers these motivators, institutions using blended learning are experimenting with extending the reach of great teachers, assigning teachers specialized responsibilities, employing team-teaching, awarding micro-credentials for achievement, and granting teachers increased authority.

The next step is the one where technology and devices finally enter the equation. The objective is to design the virtual and physical setup to align with the desired student and teacher experiences.

Some of the important questions that schools should ask when selecting content and software are: Should we build our own? Should we use one or multiple outside providers? Or should we adopt a facilitated-network solution—a platform that integrates modular content from a variety of sources? Considering devices—what type and how many—to match the software and student and teacher experiences is equally important.

Finally, teams should think through the physical environment in which students learn. Will the traditional egg-crate factory-model school design enable students and teachers to be successful? Or is a more modular environment that enables increased customization desirable? Increasing numbers of blended-learning programs are embracing the latter.

From here, it's time to put the vision into action. That means taking the choices from these different steps and piecing together a coherent instructional model.

After a team finishes designing, its work is still not done. Execution matters.

Schools must create the right culture. Blended learning accelerates a good culture and makes it great, but it will also accelerate a bad culture and make it terrible. Schools should also implement their designs with humility and acknowledge that it is unlikely that they will get the design right on the first try. Taking a discovery-driven approach to help school leaders identify and mitigate risks as they kick off a blended-learning program—and iterate accordingly—will help avoid costly mistakes both for students and a school's limited budget.

Blended learning is no panacea. It's a scalable strategy that can break the trade-offs inherent in the traditional school design to allow teachers to reach students in ways never before possible. But for it to work, school leaders must not start with blended learning or technology for its own sake, but instead undertake a careful design process to unlock its potential.

Michael B. Horn is the co-founder and executive director, education, of the Christensen Institute, a nonprofit think tank in San Mateo, Calif. Heather Staker is a senior research fellow at the Christensen Institute. They are the co-authors of Blended: Using Disruptive Innovation to Improve Schools (Jossey-Bass, November 2014).

Vol. 34, Issue 14, Pages 22,28




Friday, November 21, 2014

EdTech Procurement

Ed tech executives aren’t pleased with laws and practices governing school technology purchases. And district administrators aren’t too happy with the ed tech industry. That’s according to a recent study from Digital Promise and the Education Industry Association. The groups surveyed CEOs, educators and administrators across the country. The findings were bleak. Many district leaders said they had trouble assessing their schools’ needs, much less figuring out which products would meet them — or how to evaluate those products. And only 6 percent of vendors reported being satisfied with the procurement process. The report offers several suggestions. Among them: Districts could build incentives into their contracts that would give vendors extra payments if they could show their products were getting results. For more: http://bit.ly/1ux37jb

Several recommendations emerged from the results of these surveys:
  • Better guidelines for conducting needs assessments and including end users in the process
  • Faster methods of evaluating products and better ways of sharing results
  • Simplified Request for Proposal (RFP) processes to ensure a level playing field and high-quality results
  • Pilot approaches that increase rigor and drive purchasing decisions without over-burdening teachers
  • Incentives for providers to get results and show evidence, such as performance-based contracting and prizes
  • Websites with trusted information about ed-tech tools and district procurement policies and better ways to match providers and products with educators
  • More research about funding strategies for acquiring ed-tech products


Thursday, July 17, 2014

$5B summer learning market

$250 * 20M (33% of 60M) kids = $5B

More parents are enrolling their children in summer learning programs, according to data released by the Afterschool Alliance today.

Thirty-three percent of families said at least one child participated in a summer learning program last summer, compared to 25 percent of families in 2009. The majority of families pay for their child’s program, averaging a weekly cost of $250. Afterschool Alliance notes that the median weekly income in 2013 was $776, making costly summer learning programs out of reach for many families.

Thirteen percent of families said summer learning programs were available to them for free and 86 percent of parents support public funding for programs.


The data is a snapshot from a larger report the Afterschool Alliance plans to release in October.

Tuesday, July 8, 2014

4 Reasons Why Chromebook Beats iPad in 1:1 Programs

Add price to the list of three below.  Most important to me:  iPads are about consumption of learning and Chromebooks are about construction of learning. 

3 Reasons Why Chromebook Beats iPad in 1:1 Programs

Joshua Kim
Jun 30, 2014

The Chromebook vs. iPad debate may be one that we never resolve.
Whatever I say for the Chromebook, or whatever you say for the iPad, we will never convince each other. The truth is probably that any 1:1 device program is better than none.
Although, many of you will counter by saying that buying or mandating any single device is misguided to begin with, and that we should be focusing on a BYOD (bring your own device) structure and diving deeply into the world of VDI (virtual desktop infrastructure).
Case in point is Tim Holt’s passionate plea for choosing the iPad route in his essay, “Why We Are Misunderstanding the Chromebook-iPad Debate.”
In the end, someone has to make a decision. The decision to do nothing, to have no 1:1 or VDI program is also a decision. And each decision has consequences and costs, upsides and downsides.
To give you a little context, I am no stranger to this debate. I’ve been a big fan of choosing the iPad for 1:1 programs, for many of the same reasons that Tim Holt enumerates. In my last gig at Dartmouth College I helped roll out a 1:1 iPad Mini program for our students in our low-residency online Master of Health Care Delivery Science program. We put all the course materials on the private iTunes U app. We experimented with creating text, image, and video case studies with iBooks Author. Students loved the ability to have all of the readings and videos on the iPad, and they particularly loved being able to download all the materials for offline reading and viewing.
But after spending the past month with a Dell Chromebook 11 my thinking has begun to change.
The iPad makes sense as a 1:1 device if you know that the student already has access to a laptop.
But if your 1:1 program starts with the assumption that the device that you choose--iPad or Chromebook--will be the device that the student primarily or exclusively uses for learning, then the better choice is a Chromebook.
Why?

Reason 1: Chromebooks are for Creating, iPads are for Consuming

Tim Holt and legions of keyboard-toting iPad case owners will no doubt disagree, but the fact is that iPad was created with consumption, and not creation, in mind. The keyboard cover started as an aftermarket hack, and creating anything more than nuggets of text has always been an unsatisfying experience on an iPad.
The Chromebook has one huge advantage over the iPad that even the most hardcore iOS fanboys cannot dispute. It was built to type on.
You may concede that writing is a non-negotiable element of learning, and that typing on a Chromebook is better than an iPad. And you can argue that creating can accommodate many different types of inputs. The iPad enables creation with video (two cameras and all those video editing and picture apps). The iPad enables creation with sound. The iPad enables creation with the finger, gesture and touch.
But I would submit that anyone making the argument that the iPad is adequate for creating should be willing to live with only an iPad. How far would you get in your work if were iPad only? Everyone I know who owns an iPad uses it as a complement and a supplement to a laptop. They might bring their iPad to meetings attached to this keyboard or that, but for serious work (which almost always means creating documents), it is back to the laptop.
Should we expect our students to have anything less than what we rely on?

Reason 2: The App Versus the Web

The decision to go iPad or Chromebook is really a decision between the app or the web.
Do you believe that students should learn in an app or a web ecosystem?
The app world is seductive. The interfaces are slick and the features are many. The problem is that it is surrounded by fences and border guards. The price of admission is the cost of buying into the iOS ecosystem, which means purchasing a device manufactured by Apple. This may be a fine choice for the consumer, but it is less defensible for the educator.
Building our teaching and learning around an iOS device means that only those in the iOS club get to participate. Our students can’t connect or share or learn from anyone outside of the club. Is this what we really want?
The Chromebook, by contrast, is connected to (and yes, unusable without) the Internet.
The Internet, for all its flaws, has the advantage of being open to anyone who can find some way to gain access. Yes, that is not everyone yet, but the rapid growth of Internet-connected mobile devices and efforts to build out national and global broadband infrastructure will ensure that the numbers will increase at exponential rates.
Students using a Chromebook to learn can share materials and creations with everyone else on the Web. They can access the same sites and use the same tools.
All this openness comes with costs and difficulties. But these are teachable moments.

Reason 3: The Google Ecosystem for Collaboration

The final reason I recommend a Chromebook over an iPad, in a 1:1 setting where the only device that the student will reliably have is the one you pick, is that the Google ecosystem allows for easy collaboration.
The advantages cannot be oversold. A platform that encourages and facilitates teamwork will be a platform that encourages and facilitates learning. A Google Doc created in Google Drive can be easily shared with anyone on the Web. It can be read and worked on by a team. Nobody needs anything more than some way to access the Internet.
It may be that at some point Apple will catch up to Google with cloud-based collaboration tools. At that point, however, only those owning an Apple device will ever be able to take full advantage of the Apple creation and collaboration platform.
With the Chromebook a student is seamlessly connected to the Google collaboration ecosystem. An ecosystem that does not require the ownership of Google hardware to take full advantage.
All the learning and the work that the student invests to learn how to use Google collaboration tools will be relevant in their future education and work life, even if they never own another Chromebook.
Can that be said of an iOS device?
What device are you choosing for your 1:1 education program?


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Wednesday, July 2, 2014

EdTech is Increasing Achievement Gap

Library Kids.
Affluent kids receive more guidance in libraries—new computers or not—than poor kids do.
Courtesy of Shutterstock.

The local name for the Philadelphia neighborhood of Kensington is “the Badlands,” and with good reason. Pockmarked with empty lots and burned-out row houses, the area has an unemployment rate of 29 percent and a poverty rate of 90 percent. Just a few miles to the northwest, the genteel neighborhood of Chestnut Hill seems to belong to a different universe. Here, educated professionals shop the boutiques along Germantown Avenue and return home to gracious stone and brick houses, the average price of which hovers above $400,000.

Within these very different communities, however, are two places remarkably similar in the resources they provide: the local public libraries. Each has been retooled with banks of new computers, the latest software and speedy Internet access. Susan B. Neuman, a professor of early childhood and literacy education at NYU, and Donna C. Celano, an assistant professor of communication at LaSalle University in Philadelphia, spent hundreds of hours in the Chestnut Hill and Badlands libraries, watching how patrons used the books and computers on offer.

The two were especially interested in how the introduction of computers might “level the playing field” for the neighborhoods’ young people, children of “concentrated affluence” and “concentrated poverty.” They undertook their observations in a hopeful frame of mind: “Given the wizardry of these machines and their ability to support children’s self-teaching,” they wondered, “might we begin to see a closing of the opportunity gap?”

Many hours of observation and analysis later, Neuman and Celanano were forced to acknowledge a radically different outcome: “The very tool designed to level the playing field is, in fact, un-leveling it,” they wrote in a 2012 book based on their Philadelphia library study. With the spread of educational technology, they predicted, “the not-so-small disparities in skills for children of affluence and children of poverty are about to get even larger.”

Neuman and Celano are not the only researchers to reach this surprising and distressing conclusion. While technology has often been hailed as the great equalizer of educational opportunity, a growing body of evidence indicates that in many cases, tech is actually having the opposite effect: It is increasing the gap between rich and poor, between whites and minorities, and between the school-ready and the less-prepared.
This is not a story of the familiar “digital divide”—a lack of access to technology for poor and minority children. This has to do, rather, with a phenomenon Neuman and Celano observed again and again in the two libraries: Granted access to technology, affluent kids and poor kids use tech differently. They select different programs and features, engage in different types of mental activity, and come away with different kinds of knowledge and experience.

The unleveling impact of technology also has to do with a phenomenon known as the “Matthew Effect”: the tendency for early advantages to multiply over time. Sociologist Robert Merton coined the term in 1968, making reference to a line in the gospel of Matthew (“for whosoever hath, to him shall be given, and he shall have more abundance: but whosoever hath not, from him shall be taken away even that he hath”).
In a paper published in 1986, psychologist Keith Stanovich applied the Matthew Effect to reading. He showed that children who get off to a strong early start with reading acquire more vocabulary words and more background knowledge, which in turn makes reading easier and more enjoyable, leading them to read still more: a virtuous cycle of achievement. Children who struggle early on with reading fail to acquire vocabulary and knowledge, find reading even more difficult as a result, and consequently do it less: a dispiriting downward spiral.

Now researchers are beginning to document a digital Matthew Effect, in which the already advantaged gain more from technology than do the less fortunate. As with books and reading, the most-knowledgeable, most-experienced, and most-supported students are those in the best position to use computers to leap further ahead. For example: In the Technology Immersion Pilot, a $20 million project carried out in Texas public schools beginning in 2003, laptops were randomly assigned to middle school students. The benefit of owning one of these computers, researchers later determined, was significantly greater for those students whose test scores were high to begin with.

Some studies of the introduction of technology have found an overall negative effect on academic achievement—and in these cases, poor students’ performance suffers more than that of their richer peers. In an article to be published next month in the journal Economic Inquiry, for example, Duke University economist Jacob Vigdor and co-authors Helen Ladd and Erika Martinez report their analysis of what happened when high-speed Internet service was rolled out across North Carolina: Math and reading test scores of the state’s public school students went down in each region as broadband was introduced, and this negative impact was greatest among economically disadvantaged students. Dousing the hope that spreading technology will engender growing equality, the authors write: “Reliable evidence points to the conclusion that broadening student access to home computers or home Internet service would widen, not narrow, achievement gaps.”