QUANTA

Tuesday, April 17, 2012

 “…Decipher the outlines of our future...”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 “… If you count the number of scientific articles being published, you will find that THE SHEER VOLUME OF SCIENCE DOUBLES EVERY DECADE OR SO …”

Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 “…But this is just the beginning. Science is not static. Science is exploding exponentially all around us….”

Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 “… The future’s in-between-the-lines are read not though wild speculation but reasoned estimates…”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 The utterly wrong statement: “…Everything that can be invented has been invented…”


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 “…The lesson here is that it is very dangerous to bet against the future …”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 “… The future is already here. It’s just unevenly distributed.” ─ William Gibson


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
“…Get profound insights into the future by consulting a handful of forward thinking individuals of his time!...”

Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
 “… The remarkable inventions and discoveries of the visionaries who are daring to create the future! ….”

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“…All the wondrous inventions of the future! …”


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 “…Are you pondering the future?....”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Thursday, April 12, 2012

The Second Economy

Digitization is creating a second economy that’s vast, automatic, and invisible—thereby bringing the biggest change since the Industrial Revolution.

In 1850, a decade before the Civil War, the United States’ economy was small—it wasn’t much bigger than Italy’s. Forty years later, it was the largest economy in the world. What happened in-between was the railroads. They linked the east of the country to the west, and the interior to both. They gave access to the east’s industrial goods; they made possible economies of scale; they stimulated steel and manufacturing—and the economy was never the same.

Deep changes like this are not unusual. Every so often—every 60 years or so—a body of technology comes along and over several decades, quietly, almost unnoticeably, transforms the economy: it brings new social classes to the fore and creates a different world for business. Can such a transformation—deep and slow and silent—be happening today?

We could look for one in the genetic technologies, or in nanotech, but their time hasn’t fully come. But I want to argue that something deep is going on with information technology, something that goes well beyond the use of computers, social media, and commerce on the Internet. Business processes that once took place among human beings are now being executed electronically. They are taking place in an unseen domain that is strictly digital. On the surface, this shift doesn’t seem particularly consequential—it’s almost something we take for granted. But I believe it is causing a revolution no less important and dramatic than that of the railroads. It is quietly creating a second economy, a digital one.

Let me begin with two examples. Twenty years ago, if you went into an airport you would walk up to a counter and present paper tickets to a human being. That person would register you on a computer, notify the flight you’d arrived, and check your luggage in. All this was done by humans. Today, you walk into an airport and look for a machine. You put in a frequent-flier card or credit card, and it takes just three or four seconds to get back a boarding pass, receipt, and luggage tag. What interests me is what happens in those three or four seconds. The moment the card goes in, you are starting a huge conversation conducted entirely among machines. Once your name is recognized, computers are checking your flight status with the airlines, your past travel history, your name with the TSA1 (and possibly also with the National Security Agency). They are checking your seat choice, your frequent-flier status, and your access to lounges. This unseen, underground conversation is happening among multiple servers talking to other servers, talking to satellites that are talking to computers (possibly in London, where you’re going), and checking with passport control, with foreign immigration, with ongoing connecting flights. And to make sure the aircraft’s weight distribution is fine, the machines are also starting to adjust the passenger count and seating according to whether the fuselage is loaded more heavily at the front or back.

These large and fairly complicated conversations that you’ve triggered occur entirely among things remotely talking to other things: servers, switches, routers, and other Internet and telecommunications devices, updating and shuttling information back and forth. All of this occurs in the few seconds it takes to get your boarding pass back. And even after that happens, if you could see these conversations as flashing lights, they’d still be flashing all over the country for some time, perhaps talking to the flight controllers—starting to say that the flight’s getting ready for departure and to prepare for that.

Now consider a second example, from supply chain management. Twenty years ago, if you were shipping freight through Rotterdam into the center of Europe, people with clipboards would be registering arrival, checking manifests, filling out paperwork, and telephoning forward destinations to let other people know. Now such shipments go through an RFID2 portal where they are scanned, digitally captured, and automatically dispatched. The RFID portal is in conversation digitally with the originating shipper, other depots, other suppliers, and destinations along the route, all keeping track, keeping control, and reconfiguring routing if necessary to optimize things along the way. What used to be done by humans is now executed as a series of conversations among remotely located servers.

In both these examples, and all across economies in the developed world, processes in the physical economy are being entered into the digital economy, where they are “speaking to” other processes in the digital economy, in a constant conversation among multiple servers and multiple semi-intelligent nodes that are updating things, querying things, checking things off, readjusting things, and eventually connecting back with processes and humans in the physical economy.

So we can say that another economy—a second economy—of all of these digitized business processes conversing, executing, and triggering further actions is silently forming alongside the physical economy.

ASPEN ROOT SYSTEMS
 
If I were to look for adjectives to describe this second economy, I’d say it is vast, silent, connected, unseen, and autonomous (meaning that human beings may design it but are not directly involved in running it). It is remotely executing and global, always on, and endlessly configurable. It is concurrent—a great computer expression—which means that everything happens in parallel. It is self-configuring, meaning it constantly reconfigures itself on the fly, and increasingly it is also self-organizing, self-architecting, and self-healing.

These last descriptors sound biological—and they are. In fact, I’m beginning to think of this second economy, which is under the surface of the physical economy, as a huge interconnected root system, very much like the root system for aspen trees. For every acre of aspen trees above the ground, there’s about ten miles of roots underneath, all interconnected with one another, “communicating” with each other.

The metaphor isn’t perfect: this emerging second-economy root system is more complicated than any aspen system, since it’s also making new connections and new configurations on the fly. But the aspen metaphor is useful for capturing the reality that the observable physical world of aspen trees hides an unseen underground root system just as large or even larger. How large is the unseen second economy? By a rough back-of-the-envelope calculation (see sidebar, “How fast is the second economy growing?”), in about two decades the digital economy will reach the same size as the physical economy. It’s as if there will be another American economy anchored off San Francisco (or, more in keeping with my metaphor, slipped in underneath the original economy) and growing all the while.

Now this second, digital economy isn’t producing anything tangible. It’s not making my bed in a hotel, or bringing me orange juice in the morning. But it is running an awful lot of the economy. It’s helping architects design buildings, it’s tracking sales and inventory, getting goods from here to there, executing trades and banking operations, controlling manufacturing equipment, making design calculations, billing clients, navigating aircraft, helping diagnose patients, and guiding laparoscopic surgeries. Such operations grow slowly and take time to form. In any deep transformation, industries do not so much adopt the new body of technology as encounter it, and as they do so they create new ways to profit from its possibilities.

The deep transformation I am describing is happening not just in the United States but in all advanced economies, especially in Europe and Japan. And its revolutionary scale can only be grasped if we go beyond my aspen metaphor to another analogy.

A NEURAL SYSTEM FOR THE ECONOMY

Recall that in the digital conversations I was describing, something that occurs in the physical economy is sensed by the second economy—which then gives back an appropriate response. A truck passes its load through an RFID sensor or you check in at the airport, a lot of recomputation takes place, and appropriate physical actions are triggered.

There’s a parallel in this with how biologists think of intelligence. I’m not talking about human intelligence or anything that would qualify as conscious intelligence. Biologists tell us that an organism is intelligent if it senses something, changes its internal state, and reacts appropriately. If you put an E. coli bacterium into an uneven concentration of glucose, it does the appropriate thing by swimming toward where the glucose is more concentrated. Biologists would call this intelligent behavior. The bacterium senses something, “computes” something (although we may not know exactly how), and returns an appropriate response.

No brain need be involved. A primitive jellyfish doesn’t have a central nervous system or brain. What it has is a kind of neural layer or nerve net that lets it sense and react appropriately. I’m arguing that all these aspen roots—this vast global digital network that is sensing, “computing,” and reacting appropriately—is starting to constitute a neural layer for the economy. The second economy constitutes a neural layer for the physical economy. Just what sort of change is this qualitatively?

Think of it this way. With the coming of the Industrial Revolution—roughly from the 1760s, when Watt’s steam engine appeared, through around 1850 and beyond—the economy developed a muscular system in the form of machine power. Now it is developing a neural system. This may sound grandiose, but actually I think the metaphor is valid. Around 1990, computers started seriously to talk to each other, and all these connections started to happen. The individual machines—servers—are like neurons, and the axons and synapses are the communication pathways and linkages that enable them to be in conversation with each other and to take appropriate action.

Is this the biggest change since the Industrial Revolution? Well, without sticking my neck out too much, I believe so. In fact, I think it may well be the biggest change ever in the economy. It is a deep qualitative change that is bringing intelligent, automatic response to the economy. There’s no upper limit to this, no place where it has to end. Now, I’m not interested in science fiction, or predicting the singularity, or talking about cyborgs. None of that interests me. What I am saying is that it would be easy to underestimate the degree to which this is going to make a difference.

I think that for the rest of this century, barring wars and pestilence, a lot of the story will be the building out of this second economy, an unseen underground economy that basically is giving us intelligent reactions to what we do above the ground. For example, if I’m driving in Los Angeles in 15 years’ time, likely it’ll be a driverless car in a flow of traffic where my car’s in a conversation with the cars around it that are in conversation with general traffic and with my car. The second economy is creating for us—slowly, quietly, and steadily—a different world.

A DOWNSIDE

Of course, as with most changes, there is a downside. I am concerned that there is an adverse impact on jobs. Productivity increasing, say, at 2.4 percent in a given year means either that the same number of people can produce 2.4 percent more output or that we can get the same output with 2.4 percent fewer people. Both of these are happening. We are getting more output for each person in the economy, but overall output, nationally, requires fewer people to produce it. Nowadays, fewer people are required behind the desk of an airline. Much of the work is still physical—someone still has to take your luggage and put it on the belt—but much has vanished into the digital world of sensing, digital communication, and intelligent response.

Physical jobs are disappearing into the second economy, and I believe this effect is dwarfing the much more publicized effect of jobs disappearing to places like India and China.

There are parallels with what has happened before. In the early 20th century, farm jobs became mechanized and there was less need for farm labor, and some decades later manufacturing jobs became mechanized and there was less need for factory labor. Now business processes—many in the service sector—are becoming “mechanized” and fewer people are needed, and this is exerting systematic downward pressure on jobs. We don’t have paralegals in the numbers we used to. Or draftsmen, telephone operators, typists, or bookkeeping people. A lot of that work is now done digitally. We do have police and teachers and doctors; where there’s a need for human judgment and human interaction, we still have that. But the primary cause of all of the downsizing we’ve had since the mid-1990s is that a lot of human jobs are disappearing into the second economy. Not to reappear.

Seeing things this way, it’s not surprising we are still working our way out of the bad 2008–09 recession with a great deal of joblessness.

There’s a larger lesson to be drawn from this. The second economy will certainly be the engine of growth and the provider of prosperity for the rest of this century and beyond, but it may not provide jobs, so there may be prosperity without full access for many. This suggests to me that the main challenge of the economy is shifting from producing prosperity to distributing prosperity. The second economy will produce wealth no matter what we do; distributing that wealth has become the main problem. For centuries, wealth has traditionally been apportioned in the West through jobs, and jobs have always been forthcoming. When farm jobs disappeared, we still had manufacturing jobs, and when these disappeared we migrated to service jobs. With this digital transformation, this last repository of jobs is shrinking—fewer of us in the future may have white-collar business process jobs—and we face a problem.

The system will adjust of course, though I can’t yet say exactly how. Perhaps some new part of the economy will come forward and generate a whole new set of jobs. Perhaps we will have short workweeks and long vacations so there will be more jobs to go around. Perhaps we will have to subsidize job creation. Perhaps the very idea of a job and of being productive will change over the next two or three decades. The problem is by no means insoluble. The good news is that if we do solve it we may at last have the freedom to invest our energies in creative acts.
Economic possibilities for our grandchildren

In 1930, Keynes wrote a famous essay, “Economic possibilities for our grandchildren.” Reading it now, in the era of those grandchildren, I am surprised just how accurate it is. Keynes predicts that “the standard of life in progressive countries one hundred years hence will be between four and eight times as high as it is to-day.” He rightly warns of “technological unemployment,” but dares to surmise that “the economic problem [of producing enough goods] may be solved.” If we had asked him and his contemporaries how all this might come about, they might have imagined lots of factories with lots of machines, possibly even with robots, with the workers in these factories gradually being replaced by machines and by individual robots.

That is not quite how things have developed. We do have sophisticated machines, but in the place of personal automation (robots) we have a collective automation. Underneath the physical economy, with its physical people and physical tasks, lies a second economy that is automatic and neurally intelligent, with no upper limit to its buildout. The prosperity we enjoy and the difficulties with jobs would not have surprised Keynes, but the means of achieving that prosperity would have.

This second economy that is silently forming—vast, interconnected, and extraordinarily productive—is creating for us a new economic world. How we will fare in this world, how we will adapt to it, how we will profit from it and share its benefits, is very much up to us.

ABOUT THE AUTHOR

W. Brian Arthur is a visiting researcher with the Intelligent System Lab at the Palo Alto Research Center (PARC) and an external professor at the Santa Fe Institute. He is an economist and technology thinker and a pioneer in the science of complexity. His 1994 book, Increasing Returns and Path Dependence in the Economy (University of Michigan Press, December 1994), contains several of his seminal papers. More recently, Arthur was the author of The Nature of Technology: What it is and How it Evolves (Free Press, August 2009).

Read more at http://goo.gl/VIWwt



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How Computers Are Creating a Second Economy Without Workers

Call it the post-employee economy: The digital revolution is creating billions of dollars of wealth in a second world without people

When the disappointing jobs numbers were reported last week (employers added 120,000 jobs in March, about half the number reported in the two previous months), analysts tripped over themselves looking for an explanation. Of course, jobs numbers are bound to vary, but in my view the long-term trend calls for more jobs to disappear, and the reason is clear as day: the exploding Second Economy.

The Second Economy -- a term the economist Brian Arthur uses to describe the computer-intensive portion of the economy -- is, quite simply, the virtual economy. One of its main byproducts is the replacement of low-productivity workers with computers. It's growing by leaps and bounds, brimming with optimistic entrepreneurs, and spawning a new generation of billionaires. In fact, the booming Second Economy will probably drive much of the economic growth in the coming decades.

Unfortunately, the Second Economy will not create many jobs.

Arthur's article in the McKinsey Quarterly, titled "The Second Economy," does a wonderful job of explaining it. His Second Economy is made up of large swaths of corporate America, especially the service areas that are being replaced by transactions over the network where -- in many cases -- computers talk only with other computers. Arthur uses the airline check-in process to illustrate the point: Twenty years ago, if you went into an airport you would walk up to a counter and present paper tickets to a human being. That person would register you on a computer, notify the flight you'd arrived, and check your luggage in. All this was done by humans. Today, you walk into an airport and look for a machine. You put in a frequent-flier card or credit card, and it takes just three or four seconds to get back a boarding pass, receipt, and luggage tag. What interests me is what happens in those three or four seconds. The moment the card goes in, you are starting a huge conversation conducted entirely among machines. Once your name is recognized, computers are checking your flight status with the airlines, your past travel history, your name with the TSA (and possibly also with the National Security Agency). They are checking your seat choice, your frequent-flier status, and your access to lounges.

Nobody knows how big the Second Economy is, and there is no rigorous way of defining it. But in estimating it, I would use fairly expansive parameters for what to include. For example, I would count Amazon's total sales. In the case of Walmart, I would include all of the online sales plus the value added when computers talk to other computers to manage the supply chain, payables, and receivables and inventory. In the case of the airline industry, I would count not only the check-in process Arthur describes but things like the online reservation and ticketing process and the value added by automated systems in running airline operations.

Online retail sales topped $200 billion in 2011. Forrester Research expects them to grow at greater than 10 percent per year for the next few years. Amazon had $48 billion in sales in 2011. Google generates $40 billion in revenue. Large portions of corporations have now replaced workers with Second Economy processes, with computers busily interacting among themselves. Corporate billing system computers are now communicating with bank computers to get bills paid, and portions of the human-operated billing and crediting processes have vanished. Again, it's just computers talking with computers. Once recordings and movies are loaded into virtual space, computers in media distribution centers talk with computers in your iPod, tablet, and home entertainment center. The media manufacturing process, retail video rental stores, and theaters have been sucked into virtual space.

My New York Times and Wall Street Journal are, increasingly, Second Economy employers. No paper, no paper delivery, no paper bills, no printing presses, no more jobs for people who run printing presses, just the Times and WSJ computers talking to my iPad and billing my credit card.

New economic growth is also occurring. New businesses have been created: Google, Facebook, OpenTable, and Zynga. I, for one, buy more books because shopping at Amazon is so convenient and buying eBooks so easy. Others are watching more movies and TV reruns.

In estimating the size of the Second Economy, it's easy to count the sales of Amazon and the revenue of Google but it is difficult to know what portion of corporate activity has made the transition. For example, how deep into the Second Economy is the $5 trillion retail sales industry and the airline and banking industries? But if just one percent of the 2.5 to 3 percent labor productivity increase since 1995 is attributable to digitization, it would greatly exceed $2 trillion annually. If a $2 trillion Second Economy is growing at 10 percent per year, the same rate at which online sales are growing, then the growth in the Second Economy would account for about half the anticipated increase in GNP in 2012.

Let's do some arithmetic.

The Gross Domestic Product for the United States in 2011 was around $15 trillion. There are a little over 130 million non-farm employees. So each worker adds a little over $100,000 to the domestic output. The numbers are quite different for a Google employee. Google has a little more than 32,000 employees and its $38 billion in revenues means it generates about $1.2 million per employee. The numbers are similar for Facebook.

Walmart has some two million employees, and annual sales of around $200 billion. Given that many work part-time, I figure that the company has sales of around $100,000 per employee. With 56,000 employees in 2011, Amazon generated a little over $800,000 per employee.

Here's the challenge: In the past, every million-dollar increase in economic output generated on the order of ten jobs. In the future, in the productive Second Economy, it may generate only one or two.

When I listen to politicians and policy makers explain how they will create jobs in the future, I never hear mention of the Second Economy. If a large portion of future economic growth will occur in the rapidly expanding and highly productive Second Economy, where will the jobs come from?

As sobering as the Second Economy scenario is I believe the trend is reversible. In my next post I will sketch out an argument for how that could happen. >>   Read more at http://goo.gl/tmRYz
 

Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Wednesday, March 28, 2012

“…we are in a world where everything perishes and where nothing is permanent …”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! │ Futuretronium Supranational Initiative │ Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
Physicist Wolfang Pauli stated, “… I have committed the ultimate sin; I have introduced a particle [that is to say the neutrino] that can never be observed….”


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Socrates once said, “…It seemed to me a superlative thing ─ to know the explanation of everything, why it comes to be, why it perishes, why it is ….”


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Freeman Dyson eloquently wrote, “…[As mathematician Kurt] Gödel proved the world of pure mathematics is inexhaustible; no finite set of axioms and rules of inference can ever encompass the whole of mathematics … I hope that an analogous situation exists in the physical world. If my view of the future is correct, it means that the world of physics and astronomy is also inexhaustible; no matter how far we go into the future, there will always be new things happening, new information coming in, new worlds to explore, a constantly expanding domain of life, consciousness, and memory …”


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Dr. Michio Kaku PhD. (theoretical physicist) observed, “…We are not at the end, but at the beginning of a new physics. But whatever we find, THERE WILL ALWAYS BE NEW HORIZONS CONTINUALLY AWAITING US…”


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Dr. Michio Kaku PhD. (theoretical physicist) wrote, “…The universe could have been perverse, random, or capricious. And yet it appears to us to be whole, coherent, and beautiful….”


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Freeman Dyson argues, “…there is nothing so big nor so crazy that one out of a million technological societies may not feel itself driven to do, provided it is physically possible…”


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“… the future is not a matter of change ─ it is a matter of choice. It is not a thing to be waited for ─ it is a thing to be achieved….”


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Tuesday, March 27, 2012

Admiral Hyman Rickover (January 27, 1900 – July 8, 1986 and the «father of nuclear navy») indicated, “…It will be wise to face up the possibility of the ultimate disappearance of automobiles….High energy consumption has always been a prerequisite of political power…”


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Sunday, March 25, 2012

Rick Hampson in a piece for USA Today wrote, “…Our fright may be our salvation …. Americans often suspect they face the worst of times and, as a result, try harder to make the best of them. Whether it’s the launch of Sputnik in 1957, the fall of Saigon in 1975, or the economic challenge from Japan in the 1980s, there’s this persistent conviction that our best days are behind us … yet American’s assumptions that they’re at the brink is what save us from going over. Instead of underestimating challenges, we overact. In a competitive world, it’s a key to our success….”


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Saturday, March 24, 2012

Bill Gates argues, “…During the past two centuries, innovation has more than doubled our life span and given us cheap energy and more food. If we project what the world will be like 10 years from now without continuing innovation in health, energy or food, the picture is dark…”



Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
History shows that the greatest innovations have been introduced in periods of severe economic stress. A 2009 Booz & Company report noted, “…Television, xerography, electric razors, FM radio, and scores of other advances were produced during the Great Depression. Companies such as Dupont, which in 1937 was generating 40 percent of its revenues from products introduced after 1930, pursued innovation not only to survive the Depression but also to set the stage for decades of sustained profitable growth….”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
According to IBM general manager Adalio Sanchez, “…When you’re in a situation when you’ve really got to be judicious, to do more with less, that really drives a need for innovation and a level of creativity that you might not otherwise have in normal times. Increased innovation doesn’t always have to be about more dollars. It’s about how you use those dollars…”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Wednesday, March 21, 2012


World Future Society: "...A global 'megacrisis,' a perfect storm of climate change, economic turmoil, socioeconomic inequalities, and corruption, looms in humanity's future..." 

QUESTION: Global MegaCrisis: How Bad Will It Get? What Strategies?

Imagine a “category 5” hurricane churning toward the eastern United States. The experts agree on its size and ferocity, the alternative paths that it might take, and when it will hit. Politicians and the public accept the warning and take preventive action to save lives and reduce damage. In contrast, consider a possible/probable “Global MegaCrisis”—an emerging “perfect storm” of climate change, economic crises, joblessness, growing inequality, corruption, terrorism, and more. Few experts attempt such a synthesizing overview, there is little agreement on terminology or indicators, and, where there is some consensus, there is little agreement on whether—or if—the MegaCrisis will be resolved or alleviated, how, and when. If we are headed toward MegaCrisis, is there something basically wrong with our thinking—the need for a new master paradigm about the role of futures-relevant knowledge in our information-drenched society?

Veteran macro-thinkers Michael Marien and Bill Halal have been engaged in a debate for the past three years, publishing four scenarios “Decline to Disaster,” “Muddling Down,” “Muddling Up,” and “Rise to Maturity” in The Futurist and several journals to provoke comment. Halal argues that many new technologies on the horizon will probably make things better; Marien worries that, overall, the new hyperabundance of information will largely make things worse. Using other indicators, Richard Slaughter has been warning of a planetary emergency for several years—the greatest wake-up call in history. Read more at http://goo.gl/z8XoY




Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Monday, March 19, 2012

Nobel laureate Frank Wilczek observes, “…We are haunted by the awareness that infinitely many slightly variant copies of ourselves are living out their parallel lives and that every moment more duplicates spring into existence and take up our many alternative futures...”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
As MIT physicist Alan Guth has said, “…There is a universe where Elvis is still alive, and Al Gore is president….”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
Nobel laureate Eugene Wigner wrote, “…It was not possible to formulate the laws [of the quantum theory] in a fully consistent way without reference to consciousness..”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
Dr. Richard Feynman indicated, “…[quantum mechanics] describes nature as absurd from the point of view of common sense. And it fully agrees with experiment. So I hope you can accept nature as She is─absurd….”


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Friday, March 16, 2012

Russia plans Moon base, Mars network by 2030

Russia plans to send probes to Jupiter and Venus, land a network of unmanned stations on Mars and ferry Russian cosmonauts to the surface of the Moon — all by 2030, according to a leaked document from the country’s space agency.

By 2020, the six-seater Angara rocket will replace the Soyuz as the spaceship of choice for launching Russian payloads.

By 2030, Russia will send robots to the Moon to collect samples. The program will be punctuated with a manned Moon landing.

The optimistic program also lays out plans for active exploration of other planets in the solar system, and ideas for a follow-up to the International Space Station after 2020.

Read more: http://goo.gl/bGqrY


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
When death becomes optional

The year is 2032. You have just celebrated your 80th birthday and you have some tough decisions ahead. You can either keep repairing your current body or move into a new one.

The growing of “blank” bodies has become all the rage, and by using your own genetic material, body farmers can even recreate your own face at age 20.

In just 20 years, this is an industry that has moved from the equivalent of Frankenstein’s laboratory to the new celebrity craze, with controversy following it every step of the way.

The combination of a few high profile “accidents” along the way, coupled with those in the religious community who claim that body farmers are playing God, and asking “where does our soul reside?” has given it thousands of top media headlines around the world.

Every person on the planet has a different opinion about this moral dilemma, or whether its safe or dangerous, or whether we should just get better at repairing our existing bodies.

As medical advances continue, and we devise an entirely new range of health-enhancing options, I propose we set a new standard, raising the bar to the highest possible level. I propose we put an end to human death.

Read more: http://goo.gl/7V1Vi


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Thursday, March 15, 2012


WHAT IS THE UNDERLYING MEANING UNDER PROFESSIONAL FUTUROLOGY?

Futures studies (also called futurology) is the study of postulating possible, probable, and preferable futures and the worldviews and myths that underlie them. Futures studies (colloquially called "futures" by many of the field's practitioners) seeks to understand what is likely to continue, what is likely to change, and what is novel. Part of the discipline thus seeks a systematic and pattern-based understanding of past and present, and to determine the likelihood of future events and trends.

In futures studies, especially in Europe, the term "foresight" has become widely used to describe activities such as: critical thinking concerning long-term developments, debate and effort to create wider participatory democracy, shaping the future, especially by influencing public policy.

In the last decade, scenario methods, for example, have become widely used in some European countries in policy-making.

At the same time, the use of foresight for companies (“corporate foresight”) is becoming more professional and widespread. 

Corporate foresight is used to support strategic management, identify new business fields and increase the innovation capacity of a firm.

Foresight is not the same as futures research or strategic planning. It encompasses a range of approaches that combine the three components mentioned above, which may be recast as: futures (forecasting, forward thinking, prospectives), planning (strategic analysis, priority setting), and networking (participatory, dialogic) tools and orientations.

Foresight Research is also highly influenced by systemic approaches to innovation studies, science and technology policy, and analysis of "critical technologies".

N.B: In this instance, every form that accelerates the level of change in society is a sine qua non, including the augmented progression of new scientific knowledge as well as the incessant and exponential creation and growth of disruptive technologies. ─ Read more: www.linkedin.com/in/AndresAgostini




Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Sunday, March 11, 2012

Confucius (551 BC – 479 BC) and “...A Love To Learn...”

Confucius (551 BC – 479 BC) ─ a Chinese thinker and social philosopher ─ argued,
“…[lo]ove of kindness, without a love to learn, finds itself obscured by foolishness. Love of knowledge, without a love to learn, finds itself obscured by loose speculation. Love of honesty, without a love to learn, finds itself obscured by harmful candour. Love of straightforwardness, without a love to learn, finds itself obscured by misdirected judgement. Love of daring, without a love to learn, finds itself obscured by insubordination. And love of strength of character, without a love to learn, finds itself obscured by intractability…” Source: ISBN-10: 1594202710


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Thursday, March 8, 2012

Was Saint Augustine (around AD 400) future-ready?

Saint Augustine (around AD 400) observed: “…How can the past and future be, when the past no longer is, and the future is not yet? As for the present, if it were always present and never moved on to become the past, it would not be time, but eternity…”  ─ Read more: http://goo.gl/zvSV7


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Tuesday, March 6, 2012

 Rethinking "Return on Investment": What We Really Need to Invest In

By Timothy C. Mack

Innovation means more than inventing new products for the world’s growing populations to consume. Innovation also means solving the problems created by consumption. By investing in sustainable innovation and creativity now, we will enhance our future returns.

A leading challenge for the twenty-first century is how to enhance innovation and creativity in the midst of a global recession. While this area of concern might seem to focus largely on technology and business issues, it is also tied to enhancing social development, academic vitality, political stability, and the standard of living worldwide—and doing so sustainably.

By several measures, the health of global business has actually been quite robust in recent years, especially for the largest multinational corporations in areas like energy. Large companies have enough resources to weather the storms of economic, market, and even regulatory reversals. But smaller, more innovative enterprises around the globe are hit much harder by the downturns in the world economy and by diminishing returns on inputs.

We see “diminishing returns” as global economic expansion generates its own dysfunctions. For example, more consumption leads to more waste products, which then lead to negative impacts like pollution and climate change. In another context, we see diminishing returns when we recognize that “working bigger” is not always working smarter, and many view the increasing acquisition of smaller firms by multinational entities as undermining productivity worldwide.

Basic examples of diminishing returns include too much fertilizer on a single field, too much additional seed without more available land to plant it in, and too many added tools without enough added workers or vice versa. In other words, diminished returns result from increasing one factor of economic production without being able to change other parts of an economic system, to keep things in balance.

The global problems we are wrestling with today are largely due to system imbalances of various types, and to the lack of a holistic systems approach overall. We must add creativity and innovation to the economic system, so as to enhance competitiveness system-wide. By innovation, I mean the ability to imagine, reconcile, and combine ideas that will improve economic health and prosperity throughout the world.

The law of diminishing returns suggests that, when complexity and scale increase past a certain point, returns will ultimately plateau and then plummet. This dynamic is often masked by the fog of ever-more-complex partnerships or ever-increasing debt, which necessarily have built-in problems that also tend to build up. These problems in turn create numerous delayed and feedback loops, which alter the ongoing operation of those systems—for better or worse.

For example, one result of large-scale mergers and consolidations is to concentrate risk on a scale never possible before. The underside of this global interconnectedness is that the individual “dominoes” within that system become increasingly aligned. And as in a crowded forest, a single falling tree can bring down far too many others.

Responses to this perceived problem often aim at classic sustainability solutions. I prefer to look at sustainable development in a broader context and to seek solutions not simply for the environment, but for social and political dilemmas, as well.

The term “diminishing returns” does not always imply a negative assessment of past, present, or future return on investment (ROI) strategies. Diminishing returns can affect any investment that involves financial, intellectual, or industrial resources. In what may come to be recognized as a new normal, it also refers to strategies for the future that rethink the traditional concept of ROI and levels of adequacy—that is, rethinking ways to assess systemic balance. To put it more assertively, a total rethinking of return-on-investment strategies could be in order.

An MIT study on innovation notes that, over the past 50 years, the vast majority of innovations have come from small organizations that actually receive little financial support from institutional investors. Accordingly, an increase in early-stage investment in smaller, innovative enterprises might buoy up the ailing global economy. However, due to the risk-averse nature of institutional investor groups, this is not likely to widely occur.

So what are our options? I believe we need to focus on a range of initiatives to promote innovation, including innovation in education and training. This would include education/private sector strategic partnerships that promote creativity and cultivate “a taste for risk.”

Local approaches that adjust for country-by-country variations are frequently more productive than one-size-fits-all policies. In France, local history favors the use of cooperatives (both manufacturing- and services-based) and a focus on improving local production, shortening channels between producer and consumer, and introducing innovation tax credits. This might be termed bringing economic prosperity through rebalancing the economic food chain.

John Holland at the Santa Fe Institute defines the concept of emergence as “much coming from little.” Similarly, as we begin to rethink return on investment, there are three common strategies for attaining much from little. The first approach is to focus on increasing efficiency, ideally producing more with fewer resources. A good example of this is Moore’s law in electronics, where diminishing costs and increasing productivity have gone hand in hand.

A second approach focuses on consistency, which concentrates on improving quality (versus just turning out more of the same product in the same manner) and emphasizes predictability and repeatability.

The final approach is the path of sufficiency, which involves rethinking the elements involved and often results in less coming to be seen as more. This could include the march of the Green Movement, with its concentration on economy, ecology, and appropriate downsizing. It could also include the industrial ecology movement—a convergent multidisciplinary approach to building integrated and sustainable industrial systems. It includes reinterpreting former waste streams as “repurposed assets” that may be utilized as raw material for an entirely different industry. A recent example is waste carbon or plastic scraps being used in nanotechnology for construction of fullerene nanotubes.

Still another example of Green approaches is resource decoupling. This involves using fewer resources per unit of economic output while also reducing the environmental impacts of resource use and other economic activities. The positive impact of resource decoupling stands in sharp contrast to the ecological degradation and resource scarcities that currently make the problems of failing financial markets and economic recession even worse.

Looking back over the course of the twentieth century, we find that relative resource balances actually remained fairly equitable. For example, while world gross domestic product rose by a factor of 23 between 1901 and 2000, global resource use only rose by a factor of eight. This was partly the result of improved technologies, including those enabling increased energy efficiency. But a balance of this sort seems far less likely for the unfolding twenty-first century.

Looking forward, the UN Environmental Program’s International Resource Panel projects that world consumption of natural resources could triple by 2050, far exceeding sustainable levels. In a 2011 report, the Panel called for the general realization that prosperity and well-being do not depend on consumption of ever-greater amounts of resources. Instead, we need to recognize that the trade off between environmental negatives and economic positives can be avoided. In other words, low-carbon, resource-efficient approaches can stimulate economic growth, increase employment, and reduce poverty, while still keeping the human footprint within sustainable limits.

Of course, successful decoupling will require significant changes in national government policies, corporate behavior worldwide, and the consumption patterns of the global public. It is also clear that any one-size-fits-all approach is unlikely to succeed, given the range of economic levels and diverse national cultures worldwide.

One of the widest extremes between countries and among groups within countries remains the consumption of raw materials: The richest 20% of global population is responsible for 80% or more of consumption, while the poorest 20% consumes closer to 2% of the total. This puts the poorer groups at a disadvantage in the search for the energy resources to support creative activities. New resources can either be found or created, but in the lowest economic ranges, people lack the energy needed for effective search or creative activity. And so these imbalances continue or increase.

Any process that reduces inputs and/or increases outputs will require changes in public policy and public opinion. For this to happen, the training and education needed must be both subtle and sophisticated. The goal is to bring improved resource productivity (e.g., through materials substitution) into balance with the demands of rising affluence. This can only be accomplished with political will and coordination among governments (national and supranational), nongovernmental organizations (with their growing influence), and private industry/corporations.

At times, it seems too much to hope that political influence will ever be spread equitably—or even that enough private citizens will become involved in public policy to substantially affect outcomes. But the expansion of “Occupy ____” movements in the United States and growth of bilateral e-government capabilities worldwide all suggest at least that the number of active stakeholders is likely to continue to increase.

Over the past decade, the concept of hybrid organizations has become more popular, with government, NGOs, and private-sector entities creating new configurations. But progress has been much slower than was initially expected. Those who assume leadership of such hybrid organizations will naturally guide and shape their own agendas, but the real challenge for any organization engaged in boundary spanning is how to get the now-wider range of stakeholders to cooperate in reality versus merely for public relations purposes. Authentic partnerships are long-lasting, because they provide tangible benefits for the majority of those involved.
Enhancing Innovation

Innovation arises from applying creative approaches to problems. This is true across the economic, technological, logistic, political, and social arenas. The most radical and revolutionary technology innovations tend to emerge from formalized R&D, while less-dramatic incremental and pragmatic innovations may emerge from day-to-day operations.

Innovation can be seen as either supply-pushed (based on new technological possibilities) or demand-led (based on social needs and user requirements). But innovation also arises through a complex set of processes that link many different players together. This includes not only developers and users, but also consultancies, standards bodies, governments, and NGOs.

It is tempting to view innovation—particularly technological innovation—as a panacea. This is not always the case. While technological development continues to produce solutions, new problems continue to emerge—global warming and related economic problems, resource depletion, unmanaged waste products of consumption, population growth, and so on.

New technologies can only do so much to forge solutions or drive needed change: Building electric cars will not reduce pollution if no one buys them or if no network of convenient recharging stations exists to keep them running. Therefore, government regulation, marketplace dynamics, and public willingness to change their behaviors are also integral parts of the innovation formula. South Korea, for example, is currently building a smart grid that is expected to support 30,000 electric vehicle charging stations by 2030. Focused applications appear to be the most productive approach: Correctly identify a problem, then solve it.

Much successful innovation occurs at the boundaries of organizations and industries, where legacy restrictions are fewer and the problems and needs of users can be linked with the potential of technologies in a creative process that challenges both. In such networks of innovation, communities of users can help further develop technologies and reinvent their social meaning with tools like open-source software.
Innovation in Education and Learning

The goal must be to develop changes that are both relevant and valuable to users. One example of this process in action is to develop learning/lesson plans that are custom-tailored according to the abilities of individual students and responsive to stakeholder input. An articulate voice for individualization is Ben Bloom, who divides educational skill sets into cognitive, affective, and psychomotor skills: i.e., mind, heart, and body. Men, he says, learn better by doing; women, through dialogue.

Will schools ever embrace these opportunities for learning and innovation? Classroom productivity has not always risen with increased online learning, but computer games do teach skills—especially analytical thinking, team building, multitasking, and problem solving under stress—which are not often learned in the classroom. There is general agreement that the social dimension of learning is beneficial because learning in a social context is usually faster, with longer retention. The challenge is how to build a working hybrid that solves problems without creating new ones.

One move in this direction is to assess social network technology in light of clear quantitative and qualitative educational outcomes, rather than worrying about potential classroom disruption. Another is to support child-guided learning, where kids and adults work side by side as peers to solve (for example) a local real-world environmental problem. Using this problem-solution approach, many school-based community environmental programs are student run: Students choose projects and do most or all of the work. In such a setting, even mistakes become good opportunities to learn and to improve the process of finding a viable solution.
Innovation and Learning in Communities

Besides creative education techniques, another innovation-friendly concept is that of Living Systems, as described by James Grier Miller in the late 1970s. Countries, societies, and even super-national organizations such as the European Union can also be much more organically interactive, given the opportunity. This principle can also be applied to mechanical systems—such as those that convert matter to energy and vice versa—as well as to information-transmission and exchange systems. In this context, information means “options to choose among” (such as signals, symbols, messages, or patterns) that can be transmitted or responded to.

One major unresolved question in this approach involves responses to subjective phenomena; e.g., different interpretations of the same structures by subjective viewers. These kinds of value differentiations are common in systemic behavior (in politics for instance), and the issues involved are anything but trivial. The goal is to build successful harmonious systems, not conflict-ridden or disruptive ones. To quote Frijof Capra, “In the end, aggressors always destroy themselves, making way for others who know how to cooperate and get along. It is much less a competitive struggle for survival than a triumph of cooperation and creativity.”

Karen Hawley Miles, executive director and founder of Education Resource Strategies and author of The Strategic School, asserts the need for leading indicators of performance versus lagging ones in order to identify and act quickly to support and change failing undertakings. But the most critical question is what changes to make in order to produce positive differences. In terms of appropriate educations tools, a significant complication arises from the wide range of individual learning styles.

Howard Gardener has identified seven distinct types of intelligence: linguistic, musical, logical-mathematical, spatial, bodily kinesthetic, interpersonal, and intrapersonal. Digital tools and gaming software can help make self-paced and self-styled learning in many of these areas possible, because gaming’s flexibility tends to enhance this range of styles rather than ignore or combat them. But the once almost universal “precision” learning approach, built upon rote memorization and tests based upon the premise that there is only one “right answer” to a given problem, remains dominant. A more organic understanding of the learning process and a broader acceptance of the idea that different solutions are appropriate in different situations will be needed if we are ever to achieve the ideal of “educating one student at a time.”

Regulatory structures guiding education still lean toward the one-size-fits-all model, leaving many hopeful innovators trapped within networks of inflexible requirements. Continuing to focus on standard outputs rather than the quality of inputs tends to reward compliance more than success in process change.

The marketplace—the ultimate customer for individual education—could help reform such measures of output by encouraging more customization to fit locale, resources, culture, and community needs. Techniques such as scenario building, which effectively illustrate the consequences of failure to change where change is needed, can have a powerful effect by building the relevant political will within the community in question.

We have seen this approach to community innovation succeed: The Mont Fleur scenario-planning project (under Adam Kahane) in South Africa helped to end apartheid through a public win-win process, largely by illustrating the alternatives. This does not imply that scenarios are a magic technique that always works. As James Ogilvy says in Facing the Fold: Essays on Scenario Planning, “There are no guarantees. Contrary to the creationists, happy endings are not foreordained. The best of intentions can yield unintended consequences. For any single actor, tribe, species or company, there is always the distinct possibility of tragedy, defeat, extinction, or bankruptcy.”
Innovation for Improving The World

While emerging strategies and the wonders of technology always arouse intellectual interest, the more critical question is how technology actually changes our lives (for better or worse) and how we might better prepare for these changes. For example, much has been made of the impact of smart technologies on health, through such mechanisms as telemedicine, and on the lives of senior citizens, through concepts like aging in place. Both health maintenance and independent living would be enabled by wearable monitoring equipment and by enhanced automation of household tasks (such as cleaning and garbage disposal).

In addition, household appliances will soon be designed with the ability to offer advice and protection to those who use them. For example:
Smart refrigerators will be able to aid in meal planning by keeping track of what specific foods are on hand, their nutritive value, and taste combinations. Accordingly, they will be able to suggest menus based on available raw materials.
Smart bathrooms, already undergoing medical testing/assessment, could feature chemical-sensing toilets and floors that measure weight, body mass, and skin temperature, as well as monitor for falls, etc.
Smart medicine dispensers with packaging that can “recognize” contents and know a patient’s medical needs could automatically sound an alarm to help guard against accidental overdose and/or prevent harmful drug interactions.

Technology applications like these not only affect health, but also could significantly enhance the economic vitality of less-developed countries. Already, poor and developing countries are acquiring hand-held communications equipment at four times the rate of developed countries. Such devices support the growth of financial services without banks in countries like Ecuador and Kenya. Smart cash transfer also makes crowd sourcing for paid micro-tasks possible and can thus generate tracking data to reveal patterns of credit-card use.

Consider the growth of wired smart cities like London, Singapore, and Stockholm, where smart tech is helping to address such challenges as traffic congestion, mass transit, water use grids, crime map networks, etc. It is projected that, by 2020, a global broadband network with sufficient levels of penetration will be in place to bring Paul David’s productivity paradox into play. David predicts that, once a certain level of adoption is achieved, a new technology begins to generate increases in its own productivity at an expanding rate.

At that point, David believes, a sea change in the impact of smart technology will occur, one consequence of which will be the fully measured society. “The Internet of Things” will consist of an almost planet-wide sensor network constantly monitoring local changes in light, temperature, humidity, pathogens, pesticides, and many other aspects of society and the environment. Such constant sampling and testing could generate a host of health and behavior-changing knowledge.

Also, look for the coming “bodnet,” or Internet of bodies, for bio platforms will surely be part of the network. Possibilities include storing data with your thumb, such as Sparsh (MIT Media Lab), and the use of biochips printed on plastic wrap utilizing blood and memristors (tiny two-terminal variable resistors that will be able to store data far more efficiently than today’s computer hard drives), thus further narrowing the gap between machines and humans.

Even epidemiological behavior such as the spread of influenza may be identified and tracked, based on movement and communications patterns using smartphone info. In addition, social behavior trends such as obesity can become more predictable from mining data on travel and eating behavior available through smart technologies—especially since obesity often seems to behave like a communicable disease. Smartphone applications already provide analytical tools that make it possible to perform sonograms or analyze biochemical blood work from a remote location. Accordingly, public health, urban planning, and marketing strategies can all be informed and guided by smart tech’s use of information.

This can even make it possible to track behavioral indicators of growing mental illness, or identify leading influencers in any social network. Thus, we could follow the spread of ideas, including political ones; we would monitor the spread of memes the way we monitor the spread of a disease today.

The question here is how much information is too much to understand and whether that knowledge will be used wisely. Can the government or private sector be relied upon to make appropriate use of this highly personal information? Only time will tell, but we can hope that the beneficial aspects outweigh the detrimental ones.

The bottom line is that, while there are many indicators of diminishing productivity through business consolidation and the reduction of innovation, there are just as many pointing to expanded technological problem solving and enhanced positive capabilities. The creative impulse is still strong in the human spirit, and we can expect to see problems solved and new mountains climbed far into the future.

Read more: http://goo.gl/zvSV7


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
Robot Ants Invade Factories to Boost Efficiency

Robotic vehicles at the Fraunhofer Institute for Material Flow and Logistics IML, in Dortmund, Germany, can mimic the thinking of ants, almost. Multishuttle Moves®, as the machines are known, use processors modeled after ants’ brains and body systems to independently navigate a warehouse, identify items to pick up, and coordinate with each other to carry each item to its designated picking station.

Each vehicle knows what to carry and where to carry it, based on installed software that crunches “ant algorithms,“ which emulate the actual behavior of ants searching for food. The vehicles’ software programs notify them when an order comes in, and then each vehicle interacts with the others through W-LAN to determine which vehicle will take on which task and where. The fleet increases or decreases its activity as the demands fluctuate throughout the workday.

Their on-board navigation systems also enable each vehicle to move freely without crashing into any objects or, for that matter, other vehicles. And via their scanners for location, acceleration, and distance, the vehicles independently calculate the shortest routes to any destination.

Fraunhofer’s researchers, who built a fleet of 50 of these robots in partnership with robotics firm Dematic, said that this suite of capabilities makes them far more efficient and economical than traditional, human-driven vehicles. Following further testing and development, the researchers said, autonomous vehicles like them could be clearing inventory in warehouses throughout Germany and beyond.

Read more: http://goo.gl/zvSV7


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com
Behold the Cheetah Robot. The Singularity is nigh!

The Defense Advanced Research Projects Agency (DARPA) is funding Boston Dynamics’ development of a prototype robot called the Cheetah.

The cat-like bot managed to gallop 18 mph on a treadmill, setting a new land speed record for legged robots. (The previous record: 13.1 mph, set at MIT in 1989.)

The company has a prototype human-like robot in the works called the Atlas that can walk upright and use its hands for balance while squeezing through narrow passages on surveillance or emergency rescue missions.

It could achieve 40 mph and someday serve as a “scout robot,” and “maybe deliver some payload”; it also could be useful in emergency rescue and civilian disasters, the company says.

Read more: http://goo.gl/zQj3x


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Monday, March 5, 2012

Can you build a human body?

The Bionic Bodies series on the BBC News website will be looking at how bionics can transform people’s lives.

We will meet a woman deciding whether to have her hand cut off for a bionic replacement and analyze the potential to take the technology even further, enhancing the body to superhuman levels.

Read more: http://goo.gl/1drvB


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com

Friday, March 2, 2012

Giving waste water the power to clean itself

A technique that combines two novel forms of renewable energy — one relying on bacteria and the other on salt water — generates more electricity than either one alone and cleans waste water at the same time.

The Pennsylvania State University researchers show that this configuration can achieve maximum power densities of 3 watts per meter squared, much higher than either technology can achieve on its own.

One method for converting this energy to a useable form is to use microbial fuel cells (MFC). These generate electricity by using cultures of microorganisms to break down and oxidize organic matter, a process that releases electrons that migrate towards a positive electrode.

To boost the power density of the MFC system, the researchers added a second process, called reverse electrodialysis (RED), in which the salinity gradient between fresh water and sea water is harnessed to generate electricity.

The researchers’ system, called a microbial reverse-electrodialysis cell (MRC), sandwiches a reverse electrodialysis (RED) stack made up of only a few pairs of membranes between the two chambers of an MFC, where the proton-exchange membrane would normally be.

Read more: http://goo.gl/f1OFC


Global Source and/or and/or more resources and/or read more: http://goo.gl/HKcYU ─ Publisher and/or Author and/or Managing Editor:__Andres Agostini ─ @Futuretronium at Twitter! Futuretronium Book at http://goo.gl/JujXk ─ www.FUTURE-OBSERVATORY.blogspot.com