The Futurist

The End of Petrotyranny

As oil prices remain high, we once again see murmurs of anticipated doom from various quarters.  Such fears are grossly miscalculated, as I have described in my 2007-08 articles about how oil at $120/barrel creates desirable chain reactions, as well as my rebuttal to the poorly considered beliefs of peak oil alarmists, who seem capable of being sold not one, but two bridges in Brooklyn.  Today, however, I am going to combine the concepts in both of those articles with some new analysis I have done to enable us to predict when oil will lose the economic power it currently holds.  You are about to see that not only are peak oil alarmists wrong, but they are just about as wrong as those predicting in 1988 that the Soviet Union would soon dominate the world, and will soon be equally worthy of ridicule.

Unenlightened Punditry and Fashionable Posturing :

As I mentioned in a previous article, many observers incessantly contradict themselves on whether they want oil to be inexpensive, or whether they want higher oil prices to spur technological innovations.  One of the most visible such pundits is Thomas Friedman, who has many interesting articles on the subject, such as his 2007 piece titled 'Fill 'Er Up With Dictators' :

But as oil has moved to $60 to $70 a barrel, it has fostered a counterwave — a wave of authoritarian leaders who are not only able to ensconce themselves in power because of huge oil profits but also to use their oil wealth to poison the global system — to get it to look the other way at genocide, or ignore an Iranian leader who says from one side of his mouth that the Holocaust is a myth and from the other that Iran would never dream of developing nuclear weapons, or to indulge a buffoon like Chávez, who uses Venezuela’s oil riches to try to sway democratic elections in Latin America and promote an economic populism that will eventually lead his country into a ditch.

But Mr. Friedman is a bit self-contradictory on which outcome he wants, as evidenced across his New York Times columns.

Over here, he says :

In short, the best tool we have for curbing Iran’s influence is not containment or engagement, but getting the price of oil down

And here, he says :

So here’s my prediction: You tell me the price of oil, and I’ll tell you what kind of Russia you’ll have. If the price stays at $60 a barrel, it’s going to be more like Venezuela, because its leaders will have plenty of money to indulge their worst instincts, with too few checks and balances. If the price falls to $30, it will be more like Norway. If the price falls to $15 a barrel, it could become more like America

Yet over here he says :

Either tax gasoline by another 50 cents to $1 a gallon at the pump, or set a $50 floor price per barrel of oil sold in America. Once energy entrepreneurs know they will never again be undercut by cheap oil, you’ll see an explosion of innovation in alternatives.

As well as over here :

And by not setting a hard floor price for oil to promote alternative energy, we are only helping to subsidize bad governance by Arab leaders toward their people and bad behavior by Americans toward the climate.

All of these articles were written within a 4-month period in early 2007.  Both philosophies are true by themselves, but they are mutually exclusive.  Mr. Friedman, what do you want?  Higher oil prices or lower oil prices?  Such confusion indicates how the debate about energy costs and technology is often high on rhetoric and low on analysis. 

Much worse, however, is the fashionable scaremongering that the financial media uses to fill up their schedule, amplified by a general public that gets suckered into groupthink.  To separate the whining from the reality, I apply the following simple test to verify whether people are actually being pinched by high oil prices or not.  If a large portion of average Americans have made arrangements to carpool to work (as was common in the 1970s), then oil prices are high.  Absent the willingness to make this adjustment, their whining about gasoline is not a reflection of actual hardship.  This enables us to declare that oil prices are not approaching crisis levels until most 10-mile-plus commuters are carpooling, that too in groups of three, rather than just two.  Coordinating of carpools is thus the minimum test of whether oil prices are actually causing any significant changes in behavior. 

Fortunately, $100 oil, a price that was considered a harbinger of doom as recently as 2007, is now not even enough to induce carpooling in 2011.  This quiet development is remarkably unnoticed, and conceals the substantial economic progress that has occurred.   

Economic Adaptations :

The following chart from Calculated Risk (click to enlarge) shows the US trade deficit split between oil and non-oil imports.  This chart is not indexed as a percentage of GDP, but if it were, we would see that oil imports at $100/barrel today are not much higher of a percentage of GDP than in 1998, when oil was just $20/barrel.  In fact, the US produces much more economic output per barrel of oil compared to 1998.  We can thus see that unlike in 1974 when the US economy has much less demand elasticity for oil, today the ability of the economy to adjust oil consumption more quickly in reaction to higher prices makes the bar to experience an 'oil shock' much harder to clear.  US oil imports will never again attain the same percentage of GDP as was briefly seen in 2008. 

Of even more importance is the amazingly consistent per capita consumption of oil since 1982, which has remained at exactly 4.6 barrels/person despite a tripling real GDP per capita during the same period (chart by Morgan Downey).  This immediately deflates the claim that the looming economic growth of China and India will greatly increase oil consumption, since the massive growth from 1982 to 2011 did not manage to do this.  At this point, annual oil consumption, currently at around 32 billion barrels, only rises at the rate of population growth - about 1% a year. 

This leads me to make a declaration.  32 billion barrels at around $100/barrel is $3.2 Trillion in annual consumption.  This is currently less than 5% of nominal world GDP.  I hereby declare that :

Oil consumption worldwide will never exceed $4 Trillion/year, no matter how much inflation, political turmoil, or economic growth there is.  Thus, 'Peak Oil Consumption' happens long before 'Peak Oil Supply' ever could. 

This would mean that oil would gradually shrink as a percentage of world GDP, just as it has shrunk as a percentage of US GDP since 1982.  Even when world GDP is $150 Trillion, oil consumption will still be under $4 Trillion a year, and thus a very small percentage of the economy.  Mark my words, and proceed further to read about how I can predict this with confidence.   

The Carnival of Creative Destruction :

There are at least seven technologies that are advancing to reduce oil demand by varying degrees, many of which have been written about separately here at The Futurist : 

1) Natural Gas : Technologies that aid the discovery of natural gas have advanced at great speed, and supplies have skyrocketed to a level that exceeds anything humanity could consume in the next few decades.  The US alone has enough natural gas to more than offset all oil consumption, and the price of natural gas is currently on par with $50 oil. 

2) Efficiency gains : From innovations in engine design, airplane wing shape, reflective windows, and lighter nanomaterials, efficiency is advancing rapidly, to the extent that economic growth no longer increases oil consumption per capita, as described earlier.  There are many options available to consumers seeking 40 mpg or higher without sacrificing too much power or size, and I predicted back in early 2006 that in 2015, a 4-door family car with a 240 hp engine would deliver 60 mpg (or equivalent) yet still cost no more than $35,000 in 2015 dollars.  People scoffed at that prediction then, but now it seems quite safe.   

3) Cellulose Ethanol and Algae Oil : Corn ethanol was never going to be suitable in cost or scale, but the infrastructure established by the corn ethanol industry makes the transition to more sophisticated forms of ethanol production easier.  But fuels from switchgrass and algae are much more cost-effective, and will be ramping up in 2012.  Solazyme is an algae oil company that went public recently, and already has a market capitalization of $1.5 Billion. 

4) Batteries : Most of the limitations of electric and hybrid vehicles stem from shortcomings in battery technology.  However, since batteries are improving at a rate that is beginning to exceed the traditional 5-8% per year, and companies such as Tesla are able to lower the cost of their fully electric vehicles, the knee of the curve is near. 

5) Telepresence : Telepresence, while expensive today, will drop in price under the Impact of Computing and displace a substantial portion of business air travel, as described in detail here.  By 2015, geographically dispersed colleagues will seem to be closer to each other, despite meeting in person less often than they did in 2008.   

6) Wind Power : Wind Power already generates almost 3% of global electricity consumption, and is growing quickly.  When combined with battery advances that improve the range and power of electric and plug-in hybrid vehicles, we get two simultaneous disruptions - oil being displaced not just by electriciy, but by wind electricity.    

7) Solar Power : This source today generates the least power among those listed here.  But it is the fastest growing of the group with multiple technologies advancing at once, and with decades of steady price declines finally reaching competitive pricepoints.  It also has many structural advantages, most notably the fact that it be deployed to land that is currently unused and inhospitable.  Many of the countries with the fastest growth in energy consumption are also those with the greatest solar intensity. 

Plus, these are just the technologies that displace oil demand.  There are also technologies that increase oil supply, such as supercomputing-assisted oil discovery and new drilling techniques.  Supply-increasing technologies work to reduce oil prices and while they possibly slow down oil demand displacement, they too work to weaken petrotyranny. 

The problem in any discussion of these technologies is that the debate centers around an 'all or none' simplicity of whether the alternative can replace all oil demand, or none at all.  That is an unnuanced exchange that fails to comprehend that each technology only has to replace 10% of oil demand.  Natural gas can replace 10%, ethanol another 10%, efficiency gains another 10%, wind + solar another 10%, and so on.  Thus, if oil consumption as a percentage of world GDP is lower in a decade than it is today, that itself is a huge victory.  It hardly matters which technology advances faster than the others (in 2007, natural gas did not appear as though it would take the lead that it enjoys today), what matters is that all are advancing, and that many of these technologies are highly complementary to each other.     

What is also overlooked is how quickly the pressure to shift to alternatives grows as oil becomes more expensive.  If, say, cellulose ethanol is cost-effective with oil at $70, then oil at $80 causes a modest $10 dollar differential in favor of cellulose.  If oil is $120, then this differential is now $50, or five times more.  Such a delta causes much greater investment and urgency to ramp up research and production in cellulose ethanol.  Thus, each increment in oil price creates a much larger zone of profitability for any alternative. 

The Cost of Petrotyranny :

This map of nations scaled in proportion to their petroleum reserves (click to enlarge) replaces thousands of words.  Some contend that the easy money derived from exporting oil leads to inevitable corruption and the financing of evil well beyond the borders of petro-states, while others lament the misfortune that this major energy source is concentrated in a very small area containing under 2% of the world's population.  Other sources of energy, such as natural gas, are much more evenly distributed across the planet, and this supply chain disadvantage is starting to work against oil.   

However, as we saw in the 2008 article, many of these regimes are dancing on a very narrow beam only as wide as the span between oil of $70 and $120/barrel.  While a price below $70 would be fatal to the current operations of Iran, Venezuela, and Russia, even a high price leads to a shrinkage in export revenue, as domestic consumption rises to reduce export units to a greater degree than can be offset by a price rise.  Furthermore, higher prices accelerate the advance of the previously mentioned technologies.  For the first time, we can now estimate how long oil can still hold such an exalted economic status. 

Quantifying the Remaining Petro-Yoke :

For the first time, we can make the analysis of both technological and political pressure exerted by a particular oil price more precise.   We can now quantify the rate of technological demand destruction, and predict the actual number of years before oil ceases to have any ability to cause economic recessions, and regimes like Iran, Venezuela, and Russia no longer can subsist on oil exports to the same degree.  This brings me to the second declaration of this article :

From the start of 2011, measure the dollar-years of area enclosed by a chart of the price of oil above $70.  There are only 200 such dollar-years remaining for the current world petro-order.  We can call this the 'Law of Finite Petrotyranny'. 

Allow me to elaborate. 

Through some proprietary analysis, I have calculated that the remaining lifetime of oil's economic importance as follows :

• From the start of 2011, take the average price of West Texas Intermediate (WTI), Brent, or NYMEX oil, and subtract $70 from that, each year. 
• Take the number accumulated, and designate that as 'X' dollar-years.
• As soon as X equals to 200 dollar-years, then oil will not just fall below $70, but will never again be a large enough portion of world GDP to have a significant macroeconomic impact. 
  
  

You can plug in your own numbers to estimate the year in which oil will cease to exert such power.  For example, if you believe that oil will average $120, which is $50 above the $70 floor, then the X points are expended at a rate of $50/year, meaning depletion at the end of 2014.  If oil instead averages just $100, then the X points are expended at $30/year, meaning it will take 6.67 years, or until late 2017, to consume them.  Points are only depleted when oil is above $70, but are not restored if oil is below $70 (as research projects may be discontinued or postponed, but work already done is not erased).  For those who (wrongly) insist that oil will soon be $170, the good news for them is that in such an event they will see the X points depleted in just two short years.  The graph provides 3 scenarios, of oil averaging $120, $110, and $100, and indicating in which year such a price trend would exhaust the 200 X points from points A, B, and C, which is the area of each of the three rectangles.  In reality, price fluctuations will cause variations in the rate of X point depletion, but you get the idea. 

Keep in mind the Law of Finite Petrotyranny, and on that basis, welcome any increase in oil prices as the hastening force of oil replacement that it is.  My personal opinion?  We average about $100/barrel, causing depletion of the X points in 2017 (scenario 'C' in green). 

Conclusion :

So what happens after the Law of Finite Petrotyranny manifests itself?  Let me pre-empt the strawmen that critics will erect, and state that oil will still be an important source of energy.  But most people will no longer care about the price of oil, much as the average person does not keep track of the price of natural gas or coal.  Oil will simply be a fuel no longer important enough to cause recessions or greatly alter consumer behavior through short-term spikes.  Many OPEC countries will see a great reduction in their power, and will no longer be able to placate their citizens through petro-handouts alone.  These countries would do well to act now and diversify their economies, phase in civil liberties while they can still do so incrementally, and prepare for a future of much lower leverage over their current customers.  

So cheer oil prices higher so that the X points get frittered away quickly.  It will be fun. 

Related :

A Future Timeline for Energy

A Future Timeline for Automobiles 

Carbonara

Observers have been waiting for carbon nanotubes, buckyballs, and graphene to transform the world for quite some time, and the wait has been longer than they expected.  Enthusiasts for this new miracle material had all but vanished.  Is this warranted?  Where does the state of innovation in various forms of carbon, that could yield ultra-strong, ultra-light materials and superfast computing really stand? 

CNET had an article just last month about the multiple disruptions that the various allotopes of carbon are about to make.  That is quite exciting, except that CNET also had a similar article in 2003.  Similarly, Ray Kurzweil extolled carbon nanotubes as a successor to silicon quite heavily in 1999, but not quite as much now, even though that supposed transition would be much closer to the present.  This does not mean that Kurzweil's estimation was in error, but rather that the technology was unexpectedly stagnant during the early 2000s.  So let us examine why there was such an interruption, and whether progress has since resumed.   

I wrote in 2009 about how we had undergone a multi-year nanotech winter, and how we were emerging from it in 2009.  As anticipated, carbon nanotubes are now finally lowering in price, and being produced at a scale that could start making an impact.  Sure enough, activity began to stir right as I predicted, and the 2010 Nobel Prize in physics has been awarded to research in graphene.  Just like CNETs article, Wired also has an article about the diverse applications that graphene could revolutionize.  Combining the two articles, we can summarize the core possibilities of carbon allotopes as follows :

Ultra-dense computing and storage : Graphene transistors smaller than 1 nanometer have been demonstrated.  Carbon allotopes could keep the exponential doubling of both computing and storage capacity going well into the 2030s. 

Carbon Fiber Vehicles : This lightweight, ultrastrong material can save vast amounts of fuel by reducing the weight of cars and aeroplanes.  While premium products such as the $6000 Trek Madone bicycles are already made from carbon fiber, greater volume is reducing prices and will soon make the average car much ligher than it is today, increasing fuel efficiency and reducing traffic fatalities. 

Energy Storage : Natural Gas is not only much cheaper than oil per unit of energy (oil would have to drop to about $30 to match current NG prices), but the supply of NG is more evenly distributed across the world than the oil supply.  The US alone has an enormous reserve of natural gas that could ensure total energy independence.  The main problem with NG is storage, which is the primary reason oil displacement is not happening rapidly.  But microporous carbon can effectively act as a sponge for natural gas, enabling safe and easy transport.  This could potentially change the entire energy map.

There are other applications beyond these core three, but suffice it to say, the allotopes of carbon can perform a greater variety of functions than any other material available to us today.  Watch for indications of carbon allotopes popping up in the strangest of places, and know that each emergence drives the cost down ever lower. 

Related :

Nanotechnology : Bubble, Bust,.....Boom?

Milli, Micro, Nano, Pico

The TechnoSponge

After years of thinking about this, I have come up with a term that can describe the thoughts I have had about the new, 'good' type of deflation that is evading the notice of almost all of the top economists in the world today.  This changes many of the most fundamental assumptions about economics, even as most economic thought is far behind the curve. 

First, let us review some events that transpired over the last 2 years.  To stave off the prospect of a deflationary spiral that could lead to a depression, the major governments of the world followed 20th-century textbook economics, and injected colossal amounts of liquidity into the financial system.  In the US, not only was the Fed Funds rate lowered to nearly zero (for now 18 months and counting), but an additional $1 Trillion was injected in. 

However, now that a depression has been averted, and the recession has ended, we were supposed to experience inflation even amidst high unemployment, just like we did in the 1970s, to minimize debt burdens.  But alas, there is still no inflation, despite a yield curve with more than 3% steepness, and a near-0% FF rate for so long.  How could this be?  What is absorbing all the liquidity?   

In The Impact of Computing, I discussed how 1.5% of World GDP today comprises of products where the same functionality can be purchased for a price that halves every 18 months.  'Moore's Law' applies to semiconductors, but storage, software, and some biotech are also on a similar exponential curve.  This force makes productivity gains higher, and inflation lower, than traditional 20th century economics would anticipate.  Furthermore, the second derivative is also increasing - the rate of productivity gains itself is accelerating.  1.5% of World GDP may be small, but what about when this percentage grows to 3% of World GDP?  5%?  We may only be a decade away from this, and the impact of this technological deflation will be more obvious. 

Most high-tech companies have a business model that incorporates a sort of 'bizarro force' that is completely the opposite of what old-economy companies operate under : The price of the products sold by a high-tech company decreases over time.  Any other company will manage inventory, pricing, and forecasts under an assumption of inflationary price increases, but a technology company exists under the reality that all inventory depreciates very quickly (at over 10% per quarter in many cases), and that price drops will shrink revenues unless unit sales rise enough to offset it (and assuming that enough unit inventory was even produced).  This results in the constant pressure to create new and improved products every few months just to occupy prime price points, without which revenues would plunge within just a year.  Yet, high-tech companies have built hugely profitable businesses around these peculiar challenges, and at least 8 such US companies have market capitalizations over $100 Billion.  6 of those 8 are headquartered in Silicon Valley. 

Now, here is the point to ponder : We have never had a significant technology sector while also facing the fears (warranted or otherwise) of high inflation.  When high inflation vanished in 1982, the technology sector was too tiny to be considered a significant contributor to macroeconomic statistics.  In an environment of high inflation combined with a large technology industry, however, major consumer retail pricepoints, such as $99.99 or $199.99, become more affordable.  The same also applies to enterprise-class customers.  Thus, demand creeps upwards even as cost to produce the products goes down on the same Impact of Computing curve.  This allows a technology company the ability to postpone price drops and expand margins, or to sell more volume at the same nominal dollar price.  Hence, higher inflation causes the revenues and/or margins of technology companies to rise, which means their earnings-per-share certainly surges.

So what we are seeing is the gigantic amount of liquidity created by the Federal Reserve is instead cycling through technology companies and increasing their earnings.  The products they sell, in turn, increase productivity and promptly push inflation back down.  Every uptick in inflation merely guarantees its own pushback, and the 1.5% of GDP that mops up all the liquidity and creates this form of 'good' deflation can be termed as the 'Technosponge'.  So how much liquidity can the Technosponge absorb before saturation? 

At this point, if the US prints another $1 Trillion, that will still merely halt deflation, and there will be no hint of inflation at all.  It would take a full $2 Trillion to saturate the techno-sponge, and temporarily push consumer inflation to even the less-than-terrifying level of 4% while also generating substantial jumps in productivity and tech company earnings.  In fact, the demographics of the US, with baby boomers reaching their geriatric years, are highly deflationary (and this is the bad type of deflation), so the US would have to print another $1 Trillion every year for the next 10 years just to offset demographic deflation, and keep the Technosponge saturated. 

A Technosponge that is 1.5% of GDP might be keeping CPI inflation at under 2%, but when the techno-sponge is 3% of GDP, even trillions of dollars of liquidity won't halt deflation.  Deflation may become normal, even as living standards and productivity rise at ever-increasing rates.  The people who will suffer are holders of debt, particularly mortgage debt.  Inflating away debt will no longer be a tool available to rescue people (and governments) from their errors.  The biggest beneficiaries will be technology companies, and those who are tied to them. 

But to keep prosperity rising, productivity has to rise at the maximum possible rate.  This requires the Technosponge to be kept full at all times - the 'new normal'.  Thus, the printing press has to start on the first $1 Trillion now, and printing has to continue until we see inflation.  Economists will be surprised at how much can be printed without seeing any inflation, and will not be able to draw the connection about why the printed money is boosting productivity. 

Related :

The Impact of Computing

Timing the Singularity

The Carnival of Creative Destruction

Words like 'disruption' and 'destruction' usually have negative meanings, and one may strain to find any good ways in which to use the terms.  But today, the accelerating rate of change ensures that more technologies alter more aspects of life at an ever-quickening rate.  A little-understood dimension of this is the concept of Joseph Schumpeter's 'Creative Destruction', where the process of technological change topples existing norms and replaces them with new ones, often quite rapidly. 

Technological diffusion was in a lull in 2008, as I pointed out at the time.  But now, in 2010, I am happy to report that the recess has passed, and that the accelerating rate of change is rising back to the long-term exponential trendline (although it may not be fully back at the trendline until 2013, when people who have not been paying attention will be wondering why they were taken by surprise).  The Impact of Computing continues to progress, infusing itself into a wider and wider swath of our lives, and speeding up the rate of change in complacently stagnant industries that never thought technology could affect them.  Silicon Valley continues to be 'ground zero' for creative destruction, and complacent industries thousands of miles away could be toppled by someone working from their bedroom in Silicon Valley. 

Just a few of the examples of creative destruction that is presently in process have been covered by prior articles here at The Futurist.  These, along with others, are :

1) Video Conferencing is poised to disrupt not just airline and hotel industry revenues (which stand to lose tens of billions of dollars per year of business travel revenue), but the real-estate, medical, and aeronautical industries as well.  Corporations will see substantial productivity gains from successful adoption of videoconferencing as a substitute for 50% or more of their travel expenses.  Major mergers and acquisitions have happened in this sector in the last few months, and imminent price reductions will open the floodgates of diffusion.  Skype provides a form of video telephony that is free of cost.  This is described in detail in my August 2008 article on the subject, as well as in my earlier October 2006 introductory article. 

2) Surface Computing, which I wrote about in July of 2008, has begun to emerge in a myriad of forms, from the handheld Apple iPad to the upcoming consumer version of the table-sized Microsoft Surface.  This not only transforms human-computer interaction for the first time in decades, but the Apple 'Apps' ecosystem alters the utility of the Internet as well.  All sizes between the blackboard and the iPad will soon be available, and by 2015, personal computing, and the Internet, will be quite different than they are today, with surfaces of varying sizes abundant in many homes. 

3) The complete and total transformation of video games into the dominant form of home entertainment will be visible by 2012 through a combination of technologies such as realistic graphics, motion-responsive controllers, 3-D televisions, voice recognition, etc.  The biggest casualty of this disruption will be television programming, which will struggle to retain viewers.  Beyond this, the way in which humans process sensations of pleasure, excitement, and entertainment will irrevocably change.  Thus, the way humans relate to each other will also change.  I have written about this in April 2006, with a follow-up in July 2009. 

4) The book-publishing industry has been stubbornly resistant to technology, as evidenced by their insistence as late as 2003 that manuscript queries be submitted by postal mail, and that a self-addressed stamped envelope be enclosed in which a reply can be sent.  A completed manuscript would take a full 12 months to be printed and distributed, and the editors didn't even find this to be odd.  Fortunately, two simultaneous disruptions are toppling this obsolete and unproductive industry from both ends.  Print-on-demand services that greatly shorten the self-publishing process and entry-cost, such as iUniverse and Blurb, are now flexible and easy, while finished books can further avoid the paper-binding process altogether and be available to millions in e-book format for the Kindle and other e-readers.  Books that cost, say, $15 to print, bind, and distribute now cost almost zero, enabling the author and reader to effectively split the money saved.  When e-readers are eventually available for only $100, bookstores that sell paper books will be relegated to surviving mostly on gifts, coffee table books, and cafe revenues.  This is a disruption that is happening quickly due to it being so overdue in the first place, resulting in a speedy 'catchup'.  I wrote about this in more detail in December of 2009.

5) The automobile is undergoing multiple major transformations at once.  Strong, light nanomaterials are entering the bodies of cars to increase fuel efficiency, engines are migrating to hybrid and electrical forms, sub-$5000 cars in India and China will lead to innovations that percolate up to lower the cost of traditional Western models, and the computational power engineered into the average car today leads to major feature jumps relative to models from just 5 years ago.  The $25,000 car of 2020 will be superior to the $50,000 car of 2005 in every measurable way. 

By 2016, consumer behavior will change to a mode where people consider it normal to 'upgrade' their perfectly functioning 6-year-old cars to get a newer model with better electronic features.  This may seem odd, but people did not tend to replace fully functional television sets before they failed until the 2003 thin-TV disruption.  The Impact of Computing pulls ever-more products into a rapid trajectory of improvement. 

By 2018, self-driving cars will be readily available to the average US consumer, and will constitute a significant fraction of cars on the highway.  This will revise existing assumptions about highway speeds and acceptable commute distances, and will further impede the real estate prices of expensive areas. 

6) The Mobile Internet revolution, which I wrote about in October of 2009, is already transforming the way consumers in developed markets access the Internet.  The bigger disruption is the entry of 1 billion new Internet users from emerging economies.  While many of these people have relatively little education compared to Western Internet users, as the West shrinks as a fraction of total Internet mindshare, many Western cultural quirks that are seen as normal (such as institutionalized misandry sustained by an ever-expanding state) might be seen for the aberrations that they are.  Thomas Friedman's concept of the world being 'flat' has not even begun to fully manifest. 

7) The energy sector is in the midst of multiple disruptions, which will introduce competition between sectors that were previously unrelated.  Electrical vehicles displace oil consumption with electricity, even while the electricity itself starts to be generated through nuclear, solar, and wind.  The electrical economy will be further transformed by revolutions in lighting and batteries.  Cellulostic ethanol will arrive in 2012, and further replace billions of gallons of gasoline.  I wrote in October 2007 why I want oil to surpass $120/barrel and stay there (it subsequently was above that level for a mere 6-week period in 2008).  This leads to why I claim that 'Peak Oil', far from being fatal for civilization, will actually be a topic few people even mention in 2020.  The creative destruction in energy will extend to the geopolitical landscape, where we will see many petrotyrannies much weaker in 2020 than they are today. 

8) Despite the efforts of Democrats to create a system unfavorable to advancement in healthcare and biotechnology, innovation continues on several fronts (partly due to Asian nations compensating for US shortfalls).  One disruption is robotic surgery, where incisions can be narrow instead of the customary practice of making incisions large enough for the surgeon's hands, which in turn often necessitates sawing open the sternum, pelvis, etc.  Intuitive Surgical is a company that already has a market cap of $14 Billion. 

The biggest disruption, however, is that the globalization of technology is enabling medical tourism.  In the US, about twice as much is spent on healthcare per person as in other OECD countries.  If manufacturing and software work can be offshored, so can many aspects of healthcare, which is much more expensive than manufacturing or software engineering ever became in the US.  This will correct inflated salaries in the healthcare sector, return the savings to consumers, and force innovations and systemic improvements in all OECD countries. 

9) By all accounts, the cost of genome sequencing has plunged by a factor of 10,000 in just the last 4 years (it is less clear how this was accomplished, and whether the next 4 years will see a comparable drop).  I tend to be skeptical about such eye-popping numbers, because if something became so much cheaper so quickly, yet it still didn't sweep over the world, then maybe it was not so valuable after all. 

But it is also possible that while the raw data is now available cheaply, there is not yet enough of a community that instructs people why they should get their genome sequenced, and how to use their data.  As more people sequence their genomes, networks of common genetic patterns will form, and health information will be shared.  Medicine will take on a Web 2.0 flavor, and physicians that realize they need to practice medicine as an information technology will thrive, while those who still adhere to the paternalistic paradigm will be left behind.  The standard medical diagnosis will be for a user to ask questions to others with the same genotype, and receive answers from multiple laypeople, and then, if necessary, take the information to a genome-savvy doctor.  The Economist has a special report on the implications of inexpensive genome sequencing. 

10) Social media such as Facebook, Twitter, etc. are mostly inundated with the trivialities of young people, or of older people who never matured, who think they have an audience far larger than it is.  However, these mediums have been used to horizontally organize interest groups and movements for political change that know no distance barriers or boundaries. 

Blogs have shattered the hold that traditional media had on the release of information and opinions, and the revenues of newspapers, magazines, and network television have tumbled.  The Tea Party movement in the US was started by a very small number of people, but has surged with a momentum that has reshaped the American landscape in just one year, and, irony of ironies, the Tea Party is spreading to overtaxed Britain.  The next Iranian revolution will not only use Twitter and YouTube, but will have millions of collaborators outside of Iran, operating out of their own homes. 

11) The financial services industry currently charges $100 Billion in fees for the $3.3 Trillion in annual credit/debit card transactions that take place in the US alone.  This was the cover story of Wired Magazine for March 2010, and was a structure established in an era when computing power needed to process transactions was expensive.  Today, several startups are seeking to change the way money is transacted to eliminate this cut that incumbent companies take.  Major financial services companies will see shrinkages in revenue, and will have to innovate and create new value-added services, or accept a diminishment. 

Aside from this effectively being a sizable 'tax cut' for the economy, this is particularly valuable as a complement to mobile Internet penetration in poorer regions, as the capacity to conduct web micro-transactions without fees will be an essential element of human development.  The highly successful concept of micro-finance will be augmented when transaction fees that consumed a high percentage of these sub-$10 transactions are minimized. 

12) 3-D Printing will soon be accessible to small businesses and households.  This transforms everything from commodity consumer goods to the construction of buildings.  An individual could download a design and print it at home, rather than be restricted to only those products that can be mass produced.  It is quite possible that by 2025, construction of basic structures takes less than one-tenth the time that it does today, which, of course, will deflate the value of all existing buildings in the world at that time. 

So we see there are at least 12 ways in which our daily lives will shift considerably in just the next few years.  The typical process of creative destruction results in X wealth being destroyed, and 2X wealth being created instead, but by different people.  For each of the 12 disruptions listed, 'X' might be as much a $1 Trillion.  As a result, the US economy might be mired in a long-term situation where vanishing industries force many laid off workers to start in new industries at the entry level, for half of their previous compensation, even as new fortunes created by the new industries cause net wealth increases.  The US could see a continuation of high unemployment combined with high productivity gains and corporate earnings growth for several years to come.  Big paydays for entrepreneurs will make the headlines frequently, right alongside stories of people who have to accept permanent 50% pay reductions.  This would be the 'new normal'. 

Income diversification is the golden rule of the early 21st century.  Those that fail to create and maintain multiple streams of income are imperiling themselves.  The hottest career one can embark on, which will never be obsolete, is that of the serial entrepreneur. 

P.S. I have waited 5 months before doing a new article to follow 'The Misandry Bubble', as I wanted that vital article to cross 100,000 visits.  It indeed has breached that threshold as of 4/30/10, ending up at 116,000 visits and 165,000 pageviews as of 5/31/10.  Keep an eye on the growth of issues covered in 'The Misandry Bubble'.

The Publishing Disruption

What a unique thing a book is.  Made from a tree, it has a hundred or more flexible pages that contain written text, enabling the book to contain a large sum of information in a very small volume.  Before paper, clay tablets, sheepskin parchment, and papyrus were all used to store information with far less efficiency.  Paper itself was once so rare and valuable that the Emperor of China had guards stationed around his paper posessions. 

Before the invention of the printing press, books were written by hand, and few outside of monastaries knew how to read.  There were only a few thousand books in all of Europe in the 14th century.  Charlemagne himself took great effort to learn how to read, but never managed to learn how to write, which still put him ahead of most kings of the time, who were generally illiterate. 

But with the invention of the printing press by Johannes Gutenberg in the mid-15th century, it became possible to make multiple copies of the same book, and before long, the number of books in Europe increased from thousands to millions. 

Fast forward to the early 21st century, and books are still printed by the millions.  Longtime readers of The Futurist know that I initially had written a book (2001-02), and sought to have it published the old-fashioned way.  However, the publishing industry, and literary agents, were astonishingly low-tech.  They did not use email, and required queries to be submitted via regular mail, with a self-addressed, stamped envelope included.  So I had to pay postage in both directions, and wait several days for a round trip to hear their response.  And this was just the literary agents.  The actual publishing house, if they decide to accept your book, would still take 12 months to produce and distribute the book even after the manuscript was complete.  Even then, royalties would be 10-15% of the retail price.  This prospect did not seem compelling to me, and I chose to parse my book into this blog you see before you. 

The refusal by the publishing industry to use email and other productivity-enhancing technologies as recently as 2003 kept their wages low.  Editors always moaned that they worked 60 hours a week just to make $50,000 a year, the same as they made in 1970.  My answer to them is that they have no basis to expect wage increases without increasing their productivity through technology. 

In the meantime, self-publishing technologies emerged to bypass the traditional publishers' role as arbitrers of what can become a book and what cannot.  From Lulu to iUniverse to BookSmart, any individual can produce a book, with copies that can be printed on demand.  Instances where an individual is seeking to go it alone without being saddled with a huge upfront inventory production and storage burden, or is otherwise marketing to only a tiny audience, have flourished.  But print-on-demand is not the true disruption - that was yet to come. 

The Amazon Kindle launched in late 2007 at the high price of $400.  Within 2 years, a substantially more advanced Kindle 2 was available for a much lower price of $260, alongside competing readers from several other companies.  Many people feel that the appeal of holding a physical book in our hands cannot be replaced by a display screen, and take a cavalier attitude towards dismissing e-readers.  The tune changes upon learning that the price of a book on an e-reader is just a third of what the paper form at a brick-and-mortar bookstore, with sales tax, would cost.  Market research firm iSuppli estimates that 5 million readers have been sold in 2009, and another 12 million will sell in 2010.  Amazon estimates that over one-third of its book sales are now through the kindle, greatly displacing sales of paper books. 

Imagine what happens when the Kindle and other e-readers cost only $100.  Brick and mortar bookstores will consolidate to fewer premises, extract profits mainly from picture-heavy books and magazines, and step up their positioning as literary coffeehouses.  Many employees and affiliates of the publishing industry will see their functions eliminated as part of the productivity gains.  College students forced to pay $100 for a textbook produced in small quantities will now pay only $20 for an e-reader version.  But even this is not the ultimate endgame of disruption. 

Intel now has a reader for the visually impaired that scans text from paper books, and reads them in an acceptable audio voice.  It is reported that with practice, an audio rate of 250 words per minute can be coherent.  While the reader costs $1500, and requires a user to turn pages manually, it is a matter of time before not only the reader's price drops, and more and more books are available as text files similar to those contained in e-readers like the Kindle.  There are already books available as free downloads of text files under the ironically named Project Gutenberg. 

Therein lies the crescendo of disruption.  The Intel Reader is a $1500 device for the visually impaired, but will soon evolve into a technology that interfaces with Kindle-type e-readers and chatters off e-books at 250 words/minute, from the full e-book library that is vastly larger than any traditional collection of audiobooks.  A 90,000-word novel could be recited in just 6 hours, enabling a user to imbibe the whole book during a single coast-to-coast flight, even if the lights are dimmed.  People could further choose to preserve their vision at home, devouring book after book with the lights out.  As the technology advances further, the speech technology will allow the user to select a voice of his choosing to be read to in, perhaps even his own voice. 

Thus, without many people even noticing the murmurs, we can predict that the next 3 years will see the biggest transformation in book production and consumption since the days of Johannes Gutenberg.  That is a true demonstration of both the Accelerating Rate of Change and The Impact of Computing.   

Mobile Broadband Surge : A Prediction Follow Up

Some of you may recall that over three and a half years ago, on February 4, 2006, I predicted that by 2013, at least 900 million people in emerging nations, 80% of whom had no Internet connection in 2006, would have access to a wireless broadband connection through their cellphones.  That seemed like a bold prediction at the time.

But in the Economist, there is a special report on mobile phones in the developing world, and this chart depicts the progress towards my prediction quite nicely.  Mobile broadband subscribers will go from nearly zero in early 2006 when the prediction was first made, to 1.4 billion by 2013 (of which 900 million can safely be assumed to be in emerging nations). 

It is often said that no other invention has done more for so many people so quickly than the mobile phone, given the large number of people who did not have even a landline phone prior to getting a mobile phone.  However, the inital deployment of rudimentary mobile phones was just the beginning.  As 3G broadband at speeds greater than 1 mbps spread to a billion people with no prior Internet access, the entire nature of their existence is transformed.  As per this second chart from the Economist report, the GDP boost from broadband Internet penetration is far higher than the already-impressive boost we have seen from simple mobile access, and we can thus expect another, stronger wave of human advancement as mobile broadband diffuses.  Simultaneously, the entire nature of the Internet is also transformed.  Think of the massive developmental catalyst such a rapid technological diffusion would be.  Child literacy would rise as the educational materials of the full Internet will be available in locations where no libraries exist, making near-universal child literacy a reality within a decade.  Agricultural and fishery supply chains will shorten tremendously.  Disaster relief will become far easier, as will the apprehension of criminals.  The upliftment that once appeared to be a process of decades will now happen in mere years.   

We can thus proceed to the next prediction, which is that by 2020, 4 billion people will have 4G wireless broadband access on their handheld mobile phone, at speeds exceeding 100 Mbps.  In other words, a landline speed that even wealthy Americans could not have in 2005 will be available wirelessly to billions of the very poorest people just 15 years later, in 2020.  Imagine that. 

Video Conferencing : A Cascade of Disruptions

Almost 3 years ago, in October of 2006, I first wrote about Cisco's Telepresence technology which had just launched at that time, and how video conferencing that was virtually indistinguishable from reality was eventually going to sharply increase the productivity and living standards of corporate employees (image : Cisco). 

At that time, Cisco and Hewlett Packard both launched full-room systems that cost over $300,000 per room.  Since then, there has not been any price drop from either company, which is unheard of for a system with components subject to Moore's Law rates of price declines.  This indicates that market demand has been high enough for both Cisco and HP to sustain pricing power and improve margins.  Smaller companies like LifeSIze, Polycom, and Teleris have lower-end solutions for as little as $10,000, that have also been selling briskly, but have not yet dragged down the Cisco/HP price tier.

This article in the San Jose Mercury News indicates what sort of savings these two corporations have earned by use of their own systems :

In a trend that could transform the way companies do business, Cisco Systems has slashed its annual travel budget by two-thirds — from $750 million to $240 million — by using similar conferencing technology to replace air travel and hotel bills for its vast workforce.

Likewise, Hewlett-Packard says it sliced 30 percent of its travel expenses from 2007 to 2008 — and expects even better results for 2009 — in large part because of its video conference technology.

If Cisco can chop its travel expenses by two-thirds, and save $500 million per year (which increases their annual profit by a not-insignificant 6-10%), then every other large corporation can save a similar magnitude of money.  For corporations with very narrow operating margins, the savings could have a dramatic impact on operating earnings, and therefore stock price.  The Fortune 500 alone (excluding airline and hotel companies) could collectively save $100 billion per year, in a wave set to begin immediately if either Cisco or HP drops the price of their solution, which may happen in a matter of months.  We will soon see that for every $20 that corporations used to spend on air travel and hotels, they will instead be spending only $1 on videoconferencing expenses.  This is gigantic gain in enterprise productivity. 

Needless to say, high-margin airline revenue from flights between major business centers (such as San Francisco-Taipei or New York-London) will be slashed, and airlines will have to consolidate to fewer flights, making suitability for business travel even less flexible and losing even more passengers.  Hotels will have to consolidate, and taxis and restaurants in business hubs will suffer as well.  But these are merely the most obvious of disruptions.  What is even more interesting are the less obvious ripple effects that only manifest a few years later, which are :

1) Employee Time and Hassle : Anyone who has had to travel to another continent for a Mon-Fri workweek trip knows that the process of taking a taxi to the airport, waiting 2 hours at the airport, the flight itself, and the ride to the final destination consumes most of the weekends on either side of the trip.  Most senior executives log over 200,000 miles of flight per year.  This is a huge drag on personal time and quality of life.  Travel on weekdays consume productive time that the employer could benefit from, which for senior executives, could be worth thousands of dollars per hour.  Furthermore, in an era of superviruses, we have already seen SARS, bird flu, and swine flu as global pandemic threats within the last few years.  A reduction of business travel will slow down the rate at which such viruses can spread across the globe and make quarantines less inconvenient for business (although tourist travel and remaining business travel are still carriers of this). 

2) Real Estate Prices in Expensive Areas : Home prices in Manhattan and Silicon Valley are presently 4X or more higher than a home of the same square footage 80 miles away.  By 2015, the single-screen solution that Cisco sells for $80,000 today may cost as little as $2000, and those from LifeSize and others may be even cheaper, so hosting meetings with colleagues from a home office might be as easy as running a conference call.  A good portion of employees who have small children may find it possible to do their jobs in a manner than requires them to go to their corporate office only once or twice a week.  If even 20% of employees choose to flee the high-cost housing near their offices, the real estate prices in Manhattan and Silicon Valley will deflate significantly.  While this is bad news for owners of real-estate in such areas, it is excellent news for new entrants, who will see an increase in their purchasing power.  Best of all, working families may be able to afford to have children that they presently cannot finance. 

3) Passenger Aviation Technological Leap : Airlines and aircraft manufacturers have little recourse but to respond to these disruptions with innovations of their own, of which the only compelling possibility is to have each journey take far less time.  It is apparent that there has been little improvement in the speed of passenger aircraft in the last 40 years.  J. Storrs Hall at the Foresight Institute has an article up with a chart that shows the improvements and total flattening of the speed of passenger airline travel.  The cost of staying below Mach 1 vs. being above it are very different, as much as 3X, which accounts for the sudden halt in speed gains just below the speed of sound after the early 1960s.  However, the technologies of supersonic aircraft (which exist, of course, in military planes) are dropping in price, and it is possible that suborbital passenger flight could be available for the cost of a first-class ticket by 2025.  The Ansari X-prize contest and Space Ship Two have already demonstrated early incarnations of what could scale up to larger planes.  This will not reverse the video-conferencing trend, of course, but it will make the airlines more competitive for those interactions that have to be in person. 

So we are about to see a cascade of disruptions pulsate through the global economy.  While in 2009, you may have no choice but to take a 14-hour flight (each way) to Asia, in 2025, the similar situation may present you with a choice between handling the meeting with the videoconferencing system in your home office vs. taking a 2-hour suborbital flight to Asia. 

This, my friends, is progress. 

The Next Big Thing in Entertainment, A Half-Time Update

On April 1, 2006, I wrote a detailed article on the revolutionary changes that were to occur in the concept of home entertainment by 2012 (see Part I and Part II of the article).  Now, in 2009, half of the time within the six-year span between the original article and the prediction has elapsed.  Of course, given the exponential nature of progress, much more happens within the second half of any prediction horizon relative to the first half. 

The prediction issued in 2006 was:

Video Gaming (which will no longer be called this) will become a form of entertainment so widely and deeply partaken in that it will reduce the time spent on watching network television to half of what it is (in 2006), by 2012.

The basis of the prediction was detailed in various points from the original article, which in combination would lead to the outcome of the prediction.  The progress as of 2009 around these points is as follows :

1) Video game graphics continue to improve : Note the progress of graphics at 10-year intervals starting from 1976.  Projecting the same trend, 2012 will feature many games with graphics that rival that of CGI films, which itself can be charted by comparing Pixar's 'Toy Story' from 1995 to 'Up' from 2009.  See this demonstration from the 2009 game 'Heavy Rain', which arguably exceeds the graphical quality of many CGI films from the 1990s.   

The number of polygons per square inch on the screen is a technology that is closely tied to The Impact of Computing, and can only rise steadily.  The 'uncanny valley' is a hurdle that designers and animators will take a couple of years to overcome, but overcoming this barrier is inevitable as well. 

2) Flat-screen HDTVs reach commodity prices : This has already happened, and prices will continue to drop so that by 2012, 50-inch sets with high resolution will be under $1000.  A thin television is important, as it clears the room to allow more space for the movement of the player.  A large size and high resolution are equally important, in order to create an immersive visual experience. 

We are rapidly trending towards LED and Organic LED (OLED) technologies that will enable TVs to be less than one centimeter thick, with ultra-high resolution. 

3) Speech and motion recognition as control technologies : When the original article was written on April 1, 2006, the Nintendo Wii was not yet available in the market.  But as of June 2009, 50 million units of the Wii have sold, and many of these customers did not own any game console prior to the Wii. 

The traditional handheld controllers are very limited in this regard, despite being used by hundreds of millions of users for three decades.  If the interaction that a user can have with a game is more natural, the game becomes more immersive to the human senses.  See this demonstration from Microsoft for their 'Project Natal' interface technology, due for release in 2010. 

Furthermore, haptic technologies have made great strides, as seen in the demonstration videos over here.  Needless to say, the possibilities are vast. 

4) More people are migrating away from television, and towards games :  Television viewership is plummeting, particularly among the under-50 audience, as projected in the original 2006 article.  Fewer and fewer television programs of any quality are being produced, as creative talent continues to leak out of television network studios.  At the same time, World of Warcraft has 11 million subscribers, and as previously mentioned, the Wii has 50 million units in circulation. 

There are only so many hours of leisure available in a day, and Internet surfing, movies, and video games are all more compelling than the ever-declining quality of television offerings.  Children have already moved away from television, and the trend will creep up the age scale.

5) Some people can earn money through games : There are an increasing number of ways where avid players can earn real money from activities within a Game.  From trading of items to selling of characters, this market is estimated at over $1 billion in 2008, and is growing. Highly skilled players already earn thousands of dollars per year this way, and with more participants joining through more advanced VR experiences described above, this will attract a group of people who are able to earn a full-time living through these VR worlds.  This will become a viable form of entrepreneurship, just like eBay and Google Ads support entrepreneurial ecosystems today. 

Taking all 5 of these points in combination, the original 2006 prediction appears to be on track.  By 2012, hours spent on television will be half of what they were in 2006, with sports and major live events being the only forms of programming that retain their audience. 

Overall, the prediction seems to be well on track.  Disruptive technologies are in the pipeline, and there is plenty of time for each of these technologies to combine into unprecedented new applications.  Let us see what the second half of the time interval, between now and 2012, delivers. 

Wolfram Alpha : The Birth of Web 3.0

The Wolfram Alpha engine is set to be launched.  Rather than a search engine, it is an 'answer engine' that interprets actual questions and answers them in accordance with their intended meaning. 

Here is a video demonstrating the Wolfram Alpha engine. 

I have written about the Semantic Web back on June 11, 2007.  The Wolfram Alpha, at first, will seem rather underwhelming, and will merely enable high-school and college students (as well as bloggers) to conduct their research more easily.  But as refinements accumulate and users go through their own learning curve, we could see a major transformation in Internet usage starting around 2012. 

The Wolfram Alpha will be the first mainstream experience of the Semantic Web, much as the launch of the Netscape Navigator browser in late 1994 heralded the arrival of the World Wide Web to the mainstream.  The launch of the Wolfram Alpha will be a similar moment in technological progress, and while it will not be as much on an incremental jump in user experience as Netscape Navigator was, consider that when Netscape Navigator was launched, it could only be accessed by desktop PCs, as there were virtually no laptops and mobile phones in 1994.  Furthermore, countries like India and China did not even have more than a handful of desktop PCs at the time.  But today, in 2009, there are devices of many shapes and sizes, across many countries, than can access the Wolfram Alpha on the first day. 

This does not mean that Wolfram Alpha will be the most successful Web 3.0 product.  Recall how Netscape failed to win the marathon despite the early dominance, and how Google surpassed earlier search engines like Lycos, AltaVista, and Yahoo.  The technology, and the trends underlying it, always supercede any one company or individual. 

Thus, we have arrived at the start of the third chapter of the Internet age.  Web 1.0 (the information web) ran from 1991 until 2001.  2001-03 was a nuclear winter for the Internet, which ended with Web 2.0 (the collaboration web) that ran from 2003 until 2009, and Web 3.0 (the semantic web) will begin now, in May 2009. 

The Impact of Computing : 78% More per Year, v2.0

Anyone who follows technology is familar with Moore's Law and its many variations, and has come to expect the price of computing power to halve every 18 months.  But many people don't see the true long-term impact of this beyond the need to upgrade their computer every three or four years.  To not internalize this more deeply is to miss investment opportunities, grossly mispredict the future, and be utterly unprepared for massive, sweeping changes to human society.  Hence, it is time to update the first version of this all-important article that was written on February 21, 2006.

Today, we will introduce another layer to the concept of Moore's Law-type exponential improvement. Consider that on top of the 18-month doubling times of both computational power and storage capacity (an annual improvement rate of 59%), both of these industries have grown by an average of approximately 12% a year for the last fifty years. Individual years have ranged between +30% and -12%, but let us say that the trend growth of both industries is 12% a year for the next couple of decades.

So, we can conclude that a dollar gets 59% more power each year, and 12% more dollars are absorbed by such exponentially growing technology each year. If we combine the two growth rates to estimate the rate of technology diffusion simultaneously with exponential improvement, we get (1.59)(1.12) = 1.78

The Impact of Computing grows at a scorching pace of 78% a year.

Sure, this is a very imperfect method of measuring technology diffusion, but many visible examples of this surging wave present themselves.  Consider the most popular television shows of the 1970s, where the characters had all the household furnishings and electrical appliances that are common today, except for anything with computational capacity. Yet, economic growth has averaged 3.5% a year since that time, nearly doubling the standard of living in the United States since 1970. It is obvious what has changed during this period, to induce the economic gains.

We can take the concept even closer to the present.  Among 1990s sitcoms, how many plot devices would no lon ger exist in the age of cellphones and Google Maps?  Consider the episode of Seinfeld entirely devoted to the characters not being able to find their car, or each other, in a parking structure (1991).  Or this legendary bit from a 1991 episode in a Chinese restaurant.  These situations are simply obsolete in the era of cellphones.  This situation (1996) would be obsolete in the era of digital cameras, while the 'Breakfast at Tiffany's' situation would be obsolete in an era of Netflix and YouTube. 

In the 1970s, there was virtually no household product with a semiconductor component.  In the 1980s, many people bought basic game consoles like the Atari 2600, had digital calculators, and purchased their first VCR, but only a fraction of the VCR's internals, maybe 20%, comprised of exponentially deflating semiconductors, so VCR prices did not drop that much per year.  In the early 1990s, many people began to have home PCs. For the first time, a major, essential home device was pegged to the curve of 18-month halvings in cost per unit of power.  In the late 1990s, the PC was joined by the Internet connection and the DVD player. 

Now, I want everyone reading this to tally up all the items in their home that qualify as 'Impact of Computing' devices, which is any hardware device where a much more powerful/capacious version will be available for the same price in 2 years.  You will be surprised at how many devices you now own that did not exist in the 80s or even the 90s.

Include : Actively used PCs, LCD/Plasma TVs and monitors, DVD players, game consoles, digital cameras, digital picture frames, home networking devices, laser printers, webcams, TiVos, Slingboxes, Kindles, robotic toys, every mobile phone, every iPod, and every USB flash drive.  Count each car as 1 node, even though modern cars may have $4000 of electronics in them.

Do not include : Tube TVs, VCRs, film cameras, individual video games or DVDs, or your washer/dryer/oven/clock radio just for having a digital display, as the product is not improving dramatically each year. 

How many 'Impact of Computing' Nodes do you currently own?
	Under 10
	11-15
	16-20
	21+
Free polls from Pollhost.com

If this doesn't persuade people of the exponentially accelerating penetration of information technology, then nothing can.

To summarize, the number of devices in an average home that are on this curve, by decade :

1960s and earlier : 0

1970s : 0-1

1980s : 1-2

1990s : 3-4

2000s : 6-12

2010s : 15-30

2020s : 40-80

The average home of 2020 will have multiple ultrathin TVs hung like paintings, robots for a variety of simple chores, VR-ready goggles and gloves for advanced gaming experiences, sensors and microchips embedded into clothing, $100 netbooks more powerful than $10,000 workstations of today, surface computers, 3-D printers, intelligent LED lightbulbs with motion-detecting sensors, cars with features that even luxury models of today don't have, and at least 15 nodes on a home network that manages the entertainment, security, and energy infrastructure of the home simultaneously. 

At the industrial level, the changes are even greater.  Just as telephony, photography, video, and audio before them, we will see medicine, energy, and manufacturing industries become information technology industries, and thus set to advance at the rate of the Impact of Computing.  The economic impact of this is staggering.  Refer to the Future Timeline for Economics, particularly the 2014, 2024, and 2034 entries.  Deflation has traditionally been a bad thing, but the Impact of Computing has introduced a second form of deflation.  A good one. 

It is true that from 2001 to 2009, the US economy has actually shrunk in size, if measured in oil, gold, or Euros.  To that, I counter that every major economy in the world, including the US, has grown tremendously if measured in Gigabytes of RAM, TeraBytes of storage, or MIPS of processing power, all of which have fallen in price by about 40X during this period.  One merely has to select any suitable product, such as a 42-inch plasma TV in the chart, to see how quickly purchasing power has risen.  What took 500 hours of median wages to purchase in 2002 now takes just 40 hours of median wages in 2009.  Pessimists counter that computing is too small a part of the economy for this to be a significant prosperity elevator.  But let's see how much of the global economy is devoted to computing relative to oil (let alone gold).

Oil at $50/barrel amounts to about $1500 Billion per year out of global GDP.  When oil rises, demand falls, and we have not seen oil demand sustain itself to the extent of elevating annual consumption to more than $2000 Billion per year.

Semiconductors are a $250 Billion industry and storage is a $200 Billion industry.  Software, photonics, and biotechnology are deflationary in the same way as semiconductors and storage, and these three industries combined are another $500 Billion in revenue, but their rate of deflation is less clear, so let's take just half of this number ($250 Billion) as suitable for this calculation.

So $250B + $200B + $250B = $700 Billion that is already deflationary under the Impact of Computing.  This is about 1.5% of world GDP, and is a little under half the size of global oil revenues. 

The impact is certainly not small, and since the growth rate of these sectors is higher than that of the broader economy, what about when it becomes 3% of world GDP?  5%?  Will this force of good deflation not exert influcence on every set of economic data?  At the moment, it is all but impossible to get major economics bloggers to even acknowledge this growing force.  But over time, it will be accepted as a limitless well of rising prosperity. 

12% more dollars spent each year, and each dollar buys 59% more power each year.  Combine the two and the impact is 78% more every year. 

Related :

A Future Timeline for Economics

Economic Growth is Exponential and Accelerating

Are You Acceleration Aware?

Pre-Singularity Abundance Milestones

The Technological Progression of Video Games

 

Nanotechnology : Bubble, Bust, ....Boom?

All of us remember the dot-com bubble, the crippling bust that eventually was a correction of 80% from the peak, and the subsequent moderated recovery.  This was easy to notice as there were many publicly traded companies that could be tracked daily.

I believe that nanotechnology underwent a similar bubble, peaking in early 2005, and has been in a bust for the subsequent four years.  Allow me to elaborate.

By 2004, major publications were talking about nanotech as if it was about to surge.  Lux Capital was publishing a much-anticipated annual 'Nanotech Report'.  There was even a company by the name of NanoSys that was preparing for an IPO in 2004.  BusinessWeek even had an entire issue devoted to all things nanotech in February 2005.  We were supposed to get excited. 

But immediately after the BusinessWeek cover, everything seemed to go downhill.  Nanosys did not conduct an IPO, nor did any other company.  Lux Capital only published a much shorter report by 2006, and stopped altogether in 2007 and 2008.  No other major publication devoted an entire issue to the topic of nanotechnology.  Venture capital flowing to nanotech ventures dried up.  Most importantly, people stopped talking about nanotechnology altogether.  Not many people noticed this because they were too giddy about their home prices rising, but to me, this shriveling of nano-activity had uncanny parallels to prior technology slumps. 

The rock bottom was reached at the very end of 2008.  Regular readers will recall that on January 3, 2009, I noticed that MIT Technology Review conspicuously omitted a section titled 'The Year in Nanotech' among their year-end roundup of innovations for the outgoing year.  I could not help but wonder why they stopped producing a nanotech roundup altogether, and I subsequently concluded that we were in a multi-year nanotech winter, and that the MIT Technology Review omission marked the lowest point.

But there are signs that nanotech is on the brink of emerging from its chrysalis.  The university laboratories are humming again, promising to draw the genie out of its magic lamp.  In just the first 12 weeks of 2009, carbon nanotubes, after staying out of the news for years, have suddenly been making headlines.  Entire 'forests' of nanotubes are now being grown (image from MIT Tech Review) and can be used for a variety of previously unrelated applications.  Beyond this, there is suddenly activity in nanotube electronics, light-sensitive nanotubes, nanotube superbatteries, and even nanotube muscles that are as light as air, flexible as rubber, but stronger than steel.  And all this is just nanotubes.  Nanomedicine, nanoparticle glue, and nanosensors are also joining the party.  All this bodes well for the prospect of catching up to where we currently should be on the trendline of molecular engineering, and enabling us to build what was previously impossible. 

The recovery out of the four-year nanotech winter could not be happening at a better time.  Nanotech is thus set to be one of the four sectors of technology (the others being solar energy, surface computing, and wireless data) that pull the global economy into its next expansion starting in late 2009. 

Related :

Milli, Micro, Nano, Pico

The End of Rabbit Ears, a Billion more Broadband Users - Part II

Three years ago, I wrote about the end of broadcasted television signals through the air on February 17, 2009.  It was one of the earliest articles here on The Futurist, and we have now arrived at the date when this transition will take place. 

In the last 3 years, we have seen the Apple iPhone (now in a 2.0 version), as well as broad deployment of 3G service to cellular phones.  Neither were available in February 2006.  But these are small increments compared to what access to the previously unavailable 700 MHz spectrum will give rise to.  The auction for the spectrum fetched $19.6 Billion, indicating how valuable this real-estate is. 

Signals sent at this frequency can easily pass through walls, and over far greater distances than signals in higher frequency bands.  More importantly, since wireless is the dominant (and often only) means of Internet access in many developing countries, the innovations designed to exploit the 700 MHz band in the US will inevitably be modified to supercharge wireless Internet access in India, Latin America, and Africa.  An additional 1 billion broadband Internet users in developing regions will be connected by 2013, as predicted in Part I of this article.  There are few technologies that can help pull people out of poverty so quickly. 

In the depths of a recession, the events that spark the next expansion arise almost unnoticed.  WIthin 24 months of this event, there will be a vast array of exciting wireless products and services for all of us to enjoy.  Remember that today, despite the economy being in its darkest hour, was the day that it began. 

(crossposted on TechSector)

Solar Power's Next 5 Game-Changing Technologies

I have written beffore about the reduction in price of solar energy, and how each succcessive price decline would deliver a new generation of adoption.  Now, we can examine some of the specfic technologies that are driving the race to affordability, and will enable solar energy to be one of the only candidate technologies to lead an economic recovery from the present downturn. 

Popular Mechanics has a roundup of five new areas of innovation in harnessing energy from the Sun.  All five promise to make solar energy competitive with the cheapest sources of fossil-fuel energy, and many of these five technologies could work in combination with each other.  The five technologies are the following :

 

Now, many of these technologies were invented before 2008, so this roundup does not alter the fact that 2008 was a year of very low technological innovation.  However, all these innovations bode very well for a tremendous boom in solar power starting around 2010.  Each technology has one or more startup companies mentioned in each section.  The industry consensus is that solar power becomes competitive with conventional sources of power generation by around 2011, varying by the local cost of electricity and the solar intensity of a particular region (i.e Arizona becomes cost-competitive for solar before British Columbia does).

The greatest benefits, however, will accrue to emerging markets.  Many poorer countries not only have electricity rates that are much more expensive than in the US, but these countries, being in more southern latitudes, receive greater solar intensity to begin with.  Breakeven in these markets arrives even sooner than it does for the wealthy countries at more northern latitudes.  Many villages in India, VietNam, Iraq, Egypt, and Indonesia will go from having no electricity to having photovoltaic electricity. 

Related :

Solar Energy Cost Curve

The Solar Revolution is Near

A Future Timeline for Energy

(crossposted on TechSector)

Why Government is Set to Extinguish Silicon Valley

Throughout history, poverty is the normal condition of man. Advances which permit this norm to be exceeded — here and there, now and then — are the work of an extremely small minority, frequently despised, often condemned, and almost always opposed by all right-thinking people. Whenever this tiny minority is kept from creating, or (as sometimes happens) is driven out of a society, the people then slip back into abject poverty.

- Robert Heinlein

The secret sauce of Silicon Valley is the tradition of leaving established companies to start or join new ones, secure funding from venture capitalists, build the company to a suitable size, and then either float or sell the company for a windfall to the founders and early employees.  The incentive to continue this practice is the engine that keeps the fire of human technological innovation alive. 

Silicon Valley's unique ecosystem has so far been nearly impossible to eclipse.  The combination of research universities, the best and brightest immigrants from India and China, a culture of entrepreneurship, and a nearly perfect climate has kept the competitors to Silicon Valley at bay.  In the 1990s, the prevalent belief was that the high cost of living in Silicon Valley would enable Austin, Dallas, Seattle, and Phoenix to attract technology workers and cultivate their own tech sectors.  This did not happen, as the Silicon Valley ecosystem just had too strong of a gravitational pull. 

This, however, should not be an excuse for complacency, or a belief that Silicon Valley is a bottomless supply of tax revenue.  There are four steps that would make Silicon Valley prohibitively inhospitable to the formation of new ventures. Any one of these by itself would not be enough to dent the might of the Silicon Valley engine, but all four combined would exceed the breaking point.  The first two of these four steps have already happened, and the final two are set to happen, barring direct intervention. 

The four steps are :

1) Sarbanes-Oxley : This attempt to reduce the risk of another Enron-style fraud has inflicted a cost on the US economy greater than 100 Enron collapses.  In Silicon Valley, the crushing costs of Sarbanes-Oxley compliance (up to $3M a year) have dried up IPOs to a trickle, as the prospect of spending money of compliance that could otherwise be spent on R&D is unappealing.  IPOs are less frequent than they were even in the early 1990s, before the bubble, and start-ups can only hope to be acquired by a larger company.  In the last 8 years, only two IPOs were large enough to be considered 'blockbuster' : Google and VMWare.  This crushes the incentive to leave stable jobs to go work at a new venture. 

2) Tortuous Immigration Process : Any list of the most successful people in the history of Silicon Valley will quickly reveal that at least one third of them were born outside of the US.  In response, America has chosen to make it much harder for more such people to come here, even as the quality of life in their home countries is rising. 

While politicians pander to illegal immigrants with minimal education, they somehow refuse to make immigration easier for legal, highly-skilled immigrants who start new ventures in America.  This is significant given the fact that about half of Silicon Valley's skilled workforce is Indian or Chinese.  Many are choosing to return to their home countries in exasperation, and are advising their younger relatives that the US immigration process is so tedious that it is better to pursue their careers at home, working for Indian or Chinese branches of HP or Microsoft. 

Under current procedures, an engineer from India or China has to be on an H1-B visa for 6 years before he can get a greencard.  If he changes employers during that period, he has to start the clock again.  The immigrant's spouse cannot work during this period.  Even after the greencard, it takes 5 more years to become a US citizen.  Unsurprisingly, the best and brightest are deciding that this 11-year limbo is not worth it, and return to their home countries (eventually starting companies there rather than in Silicon Valley).  In the 1990s, Americans had not even heard of Bangalore or Suzhou. 

I have written up a detailed solution to this problem over here. 

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If these two factors weren't bad enough, two more negatives are about to be piled on. 

3) California State Income Taxes are Set to Rise : The budget shortfalls and underfunded pensions in California are a ticking time bomb.  CalPERS, which invests in many of the top venture capital funds that nurture the growth of start-ups in Silicon Valley, is in a shambolic state, and has to add $80 billion in assets just to meet present obligations.  The top income bracket in California is already taxed at 9.3%, and this is set to rise.  Sales taxes are also set to rise.  Due to this horrendous mismanagement worthy of a banana republic, California will soon reach a tipping point where taxes are so high as to destroy California's private sector, which until now has been the envy of the world.  It would, of course, be better to reduce CA state expenditures, but government officials have made it clear that raising taxes is their preferred course of action. 

Victor Davis Hanson explains California's black hole in more detail. 

4) Federal Income Taxes are Set to Rise : If the Bush tax cuts are allowed to expire, then from 2011 onwards, the top income bracket will be taxed at 39.6% rather than the current 35%.  Here, too, the concept of reducing expenditures is not palatable to Washington decision-makers.  While this does affect the entire US equally, when this is combined with the increase in California Sate tax, the combined marginal tax rate in California rises several percentage points, and possibly rises well above 50%.

The danger here is that each of these factors by themselves are not life-threatening.  But all four of them in cumulative combination are deadly.  So on top of the difficulty of conducting an IPO, and the brain drain out of Silicon Valley back to Asia, if the financial windfall that a worker receives after his startup makes a successful exit is taxed at a grand total of 50-55%, fewer and fewer people will aspire to toil away for years in a startup.  As a result, fewer startups will form in Silicon Valley, and instead will form in Bangalore, Shanghai, and Taipei. 

Furthermore, after these forces have been in effect for a few years a simple reversal of the higher tax rates, dysfunctional immigration policy, and Sarbanes Oxley will not simply restore Silicon Valley to its prior grandeur.  The technology centers in Asia will have achieved critical mass by then, and Silicon Valley will have permanently lost its exclusivity.  It would never recover the dominance it once had. 

Silicon Valley will be reduced to a location that still hosts the headquarters of HP, Intel, Cisco, and Google, but 90% of the employees of these corporations will be overseas, and startups will be rare.  Silicon Valley will effectively become like Cleveland or Pittsburgh, which even today host the headquarters of more than 20 Fortune 500 corporations each, but still have a lower population than they each had in 1960, and cannot attract new young people to come and live there.  Cleveland and Pittsburgh are still functioning societies, of course, but their economic vibrancy is irretrievably dead. 

This bleak outlook can certainly be reversed if prompt action is taken now.  Sadly, the current path is one that is set to have a smothering effect on Silicon Valley. 

(crossposted on Techsector)

2008 Technology Breakthrough Roundup

Each year, I post a roundup of technology breakthroughs for that year from the MIT Technology Review, and I now present the 2008 edition. 

2008 was a year of unusually low technological innovation.  This is not merely the byproduct of the economic recession, as some forms of innovation actually quicken during a recession.  Furthermore, the innovations from 2006 and 2007 (linked below) showed very little additional progress in 2008, except in the field of energy.  This also confirms my observation from February 2008 that technology diffusion appears to be in a lull. 

The innovations in 2008 are categorized below : 

The Year in Computing

The Year in Robotics

The Year in Biomedicine

The Year in Materials

What is conspicuously absent is any article titled 'The Year in Nanotechnology'.  Both 2006 and 2007 had such articles, but the absence of a 2008 version speaks volumes about how little innovation took place in 2008.  The entire field on nanotechnology was lukewarm. 

Most of the innovations in the articles above are in the laboratory phase, which means that about half will never progress enough to make it to market, and those that do will take 5 to 15 years to directly affect the lives of average people (remember that the laboratory-to-market transition period itself continues to shorten in most fields). 

Furthermore, The Wall Street Journal has its own innovation awards for 2008, but this merely confirms that 2008 was a poor year for innovation.  For example, the Tata Nano is chosen in the WSJ article, yet it is not available to consumers until mid-2009.  Let's hope 2009 has more genuine innovations. 

Into the future we continue, where 2009 awaits....

Related :

2007 Technology Breakthrough Roundup

2006 Technology Breakthrough Roundup

Pre-Singularity Abundance Milestones

I am of the belief that we will experience a Technological Singularity around 2050 or shortly thereafter. Many top futurists all arrive at prediction dates between 2045 and 2075. The bulk of Singularity debate revolves not so much around 'if' or even 'when', but rather 'what' the Singularity will appear like, and whether it will be positive or negative for humanity.

To be clear, some singularities have already happened.  To non-human creatures, a technological singularity that overhauls their ecosystem already happened over the course of the 20th century.  Domestic dogs and cats are immersed in a singularity where most of their surroundings surpass their comprehension.  Even many humans have experienced a singularity - elderly people in poorer nations make no use of any of the major technologies of the last 20 years, except possibly the cellular phone.  However, the Singularity that I am talking about has to be one that affects all humans, and the entire global economy, rather that just humans that are marginal participants in the economy.  By definition, the real Technological Singularity has to be a 'disruption in the fabric of humanity'. 

In the period between 2008 and 2050, there are several milestones one can watch for in order to see if the path to a possibile Singularity is still being followed.  Each of these signifies a previously scarce resource becoming almost infinitely abundant (much like paper today, which was a rare and precious treasure centuries ago), or a dramatic expansion in human experience (such as the telephone, airplane, and Internet have been) to the extent that it can even be called a transhuman experience.  The following are a random selection of milestones with their anticipated dates. 

Technological :

Hours spent in videoconferencing surpass hours spent in air travel/airports : 2015

Video games with interactive, human-level AI : 2018

Semi-realistic fully immersive virtual reality : 2020

Over 5 billion people connected to the Internet (mostly wirelessly) at speeds greater than 10 Mbps : 2022

Over 30 network-connected devices in the average household worldwide : 2025

1 TeraFLOPS of computing power costs $1 : 2026

1 TeraWatt of worldwide photovoltaic power capacity : 2027

1 Petabyte of storage costs $1 : 2028

1 Terabyte of RAM costs $1 : 2031

An artificial intelligence can pass the Turing Test : 2040

Biological :

Complete personal genome sequencing costs $1000 : 2020

Cancer is no longer one of the top 5 causes of death : 2025

Complete personal genome sequencing costs $10 : 2030

Human life expectancy achieves Actuarial Escape Velocity for wealthy individuals : 50% chance by 2040

Economic :

Average US household net worth crosses $2 million in nominal dollars : 2024

90% of humans living in nations with a UN Human Development Index greater than 0.800 (the 2008 definition of a 'developed country', approximately that of the US in 1960) : 2025

10,000 billionaires worldwide (nominal dollars) : 2030

World GDP per Capita crosses $50,000 in 2008 dollars : 2045

_________________________________________________________________

Each of these milestones, while not causing a Singularity by themselves, increase the probability of a true Technological Singularity, with the event horizon pulled in closer to that date.  Or, the path taken to each of these milestones may give rise to new questions and metrics altogether.  We must watch for each of these events, and update our predictions for the 'when' and 'what' of the Singularity accordingly. 

Related : The Top 10 Transhumanist Technologies

Can Buildings be 'Printed'?

I have discussed the possibility of 3-D printing of solid objects before, in this article where company #5, Desktop Factory, is detailed.  However, the Desktop Factory product can only produce objects that have a maximum size of 5 X 5 X 5 inches, and it can only use one type of material. 

On the Next Big Future blog, the author quite frequently profiles a future product capable of 'printing' entire buildings.  This technology, known as 'Contour Crafting', can supposedly construct buildings at greater than 10 times the speed, yet at just one-fifth the cost of traditional construction processes.  It is claimed that the first commercial machines will be available in 2008 itself. 

Despite my general optimism, this particular machine does not pass my 'too good to be true' test, at least before 2020.  A machine that could construct homes and commercial buildings at such a speed and cost would cause an unprecedented economic disruption across the world.  There would be a steep but brief depression, as existing real estate loses 90% or more of its value, followed by a huge boom as home ownership becomes affordable to several times as many people as today.  I don't think that we are on the brink of such a revolution.

For me to be convinced, I would have to see :

1) Articles on this device in mainstream publications like The Economist, BusinessWeek, MIT Technology Review, or Popular Mechanics.

2) The ability to at least print simple constructs like concrete perimeter walls or sidewalks at a rate and cost several times superior to current methods.  Only then can more complex structures be on the horizon. 

I will revisit this technology if either of these two conditions is solidly met. 

(crossposted on TechSector). 

Surfaces : The Next Killer Ap in Computing

Computing, once seamlessly synonymous with technological progress, has not grabbed headlines in recent memory. We have not had a 'killer ap' in computing in the last few years.  Maybe you can count Wi-fi access to laptops in 2002-03 as the most recent one, but if that is not a sufficiently important innovation, we then have to go all the way back to the graphical World Wide Web browser in 1995.  Before that, the killer ap was Microsoft Office for Windows in 1990.  Clearly, such shifts appear to occur at intervals of 5-8 years. 

I can, without hesitation, nominate surface computing as the next great generational augmentation in the computing experience.  This is because surface computing entirely transforms the human-computer interaction in a matter that is more suitable for the human body than the mouse/keyboard model is. In accordance with the Impact of Computing, rapid drops in the costs of both high-definition displays and tactile sensors are set to bring this experience to consumers by the end of this decade.

BusinessWeek has a slideshow featuring several different products for surface computing. Over ten major electronics companies have surface computing products available. The most visible is the Microsoft Surface, which sells for about $10,000, but will probably drop to $3000 or less within 3-4 years, enabling household adoption.

As far as early applications of surface computing, a fertile imagination can yield many prospects. For example, a restaurant table may feature a surface that displays the menu, enabling patrons to order simply by touching the picture of the item they choose.  The information is sent to the kitchen, and this saves time and reduces the number of waiters needed by the restaurant (as waiters would only be needed to deliver the completed orders).  Applications for classroom and video game settings also readily present themselves. 

Watch for demonstrations of various surface computers at your local electronics store, and keep an eye on the price drops.  After seeing a demonstration, do share at what pricepoint you might purchase one.  The next generation of computing beckons. 

Related :

The Impact of Computing

(Crossposted on TechSector)

The Solar Revolution is Near

I have long been optimistic about Solar Energy (whether photovoltaic or thermal) becoming our largest energy source within a few decades.  Earlier articles on the subject include :

A Future Timeline for Energy

Solar Energy Cost Curve

Several recent events and developments have led me to reinforce this view.  First of all, consider this article from Scientific American, detailing a Solar timeline to 2050. The article is not even Singularity-aware, yet details many steps that will enable Solar energy to expand by orders of magnitude above the level that it is today.  Secondly, two of the most uniquely brilliant people alive today, Ray Kurzweil and Elon Musk (who I recently chatted with), have both provided compelling cases on why Solar will be our largest energy source by 2030.  Both Kurzweil and Musk reside in significantly different spheres, yet have arrived at the same prediction.

However, the third point is the one that I find to be the most compelling. There are a number of publicly traded companies selling solar energy products, many of which had IPOs in just the last three years.  Some of these companies, and their market capitalizations, are :

Now consider that the companies on this list alone amount to about $50 Billion in capitalization.  There are, additionally, many smaller companies not included on this list, many companies like Applied Materials (AMAT) and Cypress Semiconductor (CY) for which solar products comprise only a portion of their business, and large private companies like NanoSolar (which I have heavily profiled here) and SolFocus that may have valuations in the billions.  Thus, the market cap of the 'solar sector' is already between $60B and $100B, depending on what you include within the total.  This immense valuation has accumulated at a pace that has taken many casual observers by surprise.  A 2-year chart of some of the stocks listed above tells the story. 

While FirstSolar (FSLR) has been the brightest star, all the others have trounced the S&P500 to a degree that would put even Google or Apple to shame over this period.  Clearly, a dramatic ramp in Solar energy is about to make mainstream headlines very soon, even if the present valuations are too high. 

Is this a dot-com-like bubble?  Yes, in the near-term, it is.  However, after a sharp correction, the long term growth will resume for the companies that emerge as leaders.  I won't recommend a specific stock among this cluster just yet, as there are a wave of private companies with new technologies that could render any of these incumbents obsolete.  Specific company profiles will follow soon, but in the meantime, for more detail on the long-term trends in favor of Solar, refer to these additional articles of mine :

Why I Want Oil to Hit $120 per Barrel

Terrorism, Oil, Globalization, and the Impact of Computing

(crossposted on TechSector)

Ten Biotechnology Breakthroughs Soon to be Available

Popular Mechanics has assembled one of those captivating lists of new technologies that will improve our lives, this time on healthcare technologies (via Instapundit).� Just a few years ago, these would have appeared to be works of science fiction.� Go to the article to read about the ten technologies shown below.�

Most of these will be available to average consumers within the next 7-10 years, and will extend lifespans while dramatically lowering healthcare costs (mostly through enhanced capabilities of early detection and prevention, as well as shorter recovery times for patients).� This is consistent with my expectation that bionanotechnology is quietly moving along established trendlines despite escaping the notice of most people.� These technologies will also move us closer to Actuarial Escape Velocity, where the rate of lifespan increases exceed that of real time.�

Another angle that these technologies effect is the globalization of healthcare.� We have previously noted the success of 'medical tourism' in US and European patients seeking massive discounts on expensive procedures.� These technologies, given their potential to lower costs and recovery times, are even more suitable for medical offshoring than their predecessors, and thus could further enhance the competitive position of the countries that are quicker to adopt them.� If the US is at the forefront of using the 'bloodstream bot' to unclog arteries, the US thus once again becomes more attractive than getting a traditional procedure done in India or Thailand.� But if the lower cost destinations also adopt these technologies faster than the heavily regulated US, then even more revenue migrates overseas and the US healthcare sector would suffer further deserved blows, and be under even greater pressure to conform to market forces.� As technology once again acts as the great leveler, another spark of hope for reforming the dysfunctional US healthcare sector has emerged.�

These technologies are near enough to availability that you may even consider showing this article to your doctor, or writing a letter to your HMO.� Plant the seed into their minds...

Related :

Actuarial Escape Velocity

How Far Can 'Medical Tourism' Go?

Milli, Micro, Nano, Pico

'Outsourcing' - What a Non-Crisis That Turned Out to Be, v2.0

I wrote version 1.0 of this article on November 26, 2006.  16 months later, it is time for version 2.0 to provide more historical context on how misplaced the hype over some fashionable issues eventually turns out to be, and why what once appeared to be a harbinger of doom is now all but forgotten. 

In the 2001-03 economic downturn, the aftermath of the technology bust resulted in hundreds of thousands of software engineers and assorted high-tech workers losing their jobs.  A jittery public was vulnerable to influence from isolationist politicians, with the likes of Lou Dobbs and Pat Buchanan fanning the flames in the media.  As a result, the simple business practice of moving certain components of daily operations to a lower-cost location, if only to keep up with competitors already doing the same, became a dirty word - 'outsourcing'. 

The cover story of Wired Magazine's February 2004 issue was on the outsourcing of software jobs to India.  Within the article, a core theme was the supposedly tremendous hardships that white-collar Americans were about to experience due to a 'giant sucking sound' of jobs going to India.  In the same month, then Presidential candidate John Kerry screamed about the practicies of "Benedict Arnold CEOs" who outsource American jobs to India, hoping to gain the support of isolationists and the economically ignorant.  Elsewhere, very uncharitable things were said by leftists about brown-skinned Indians, due to their rapid adoption of capitalism and globalization at the expense of the leftist plantation where Indians were required to symbolize Gandhian non-violence, zen spirituality, yoga, curries, and the glorification of poverty. 

Let's call February 2004 as time when the bubble of 'outsourcing' fears reached a fevered peak.  Now, what happens whenever a bubble of psychology reaches a peak?

A quick glance at a few economic indicators from the Bureau of Labor Statistics in the 4 years since then reveals the following :

So 7.5 million jobs were created in this short time, the unemployment rate is lower than it has been for 33 of the last 37 years, and wages have risen while real GDP has grown at a 3.2% clip.  There is thus no evidence of job losses, wage erosion, or underemployment over this period.  Take that, Lou Dobbs, Pat Buchanan, John Kerry, Dennis Kucinich, and other assorted demagogues, who have no ability whatsoever to truly grasp the trends that shape our world. 

India, in the meantime, has benefited greatly as well.  GDP growth has averaged 8% a year over this same period, pulling 100 million people out of poverty.  Political ties with the US have strengthened in a manner unlike any previous episode in the last 50 years.  The faster these ties broaden, the better the world will become.  A prosperous India is a critical component to the US achieving favorable outcomes in both the War on Terror and with China, as seen from where India resides on this particular map.  Anti-Americans become apoplectic when they learn that India is the most pro-US country in the world. 

What does the future of outsourcing hold?  Is there still a risk of jobs vanishing from the US at a rate faster than they can be produced, as pessimists still maintain?  Unlikely, even though Internet backbone bandwidth has quintupled in the last 4 years, and many more people in India have PCs and Broadband connections today than in early 2004.  This is because aggregate demand growth has saturated even India's vast labor pool.  Salaries in India have been rising at over 12% a year due to labor shortages, causing their cost advantage to erode.  The Wired article from 2004 stated that the average salary of an Indian programmer was $8000 a year; today, it is closer to $15,000 a year in US dollars.  India itself has started outsourcing to Bangladesh and Eastern Europe, which are much smaller labor pools and will also saturate quickly.  Indeed, the trends favor more job creation in America and India. 

Now that we are in another recession, phony issues like this one emerge again.  Democrats are still speaking in protectionist tones, bashing NAFTA and opposing free-trade agreements with Columbia.  But other than a few pessimists, socialists, and racists, it is unlikely to gain much traction, as Americans have seen that the benefits have outweighed the costs by a handsome margin.  BusinessWeek also had an article from 4/24/07, six months after version 1.0 of this article was post, on how misrepresented the outsourcing issue is.

Thus, the bubble of fashionable pessimism has moved to the next topic, which happens to be the decline of the dollar.  This, too, will turn out to be a passing concern that the economy adjusts to after a brief period of pain.  Among other things, a competitively priced dollar has led to Europe outsourcing jobs to the US, and is also working towards reducing US dependence on oil.  A debunking of the 'weak dollar' fad will be posted on another day. 

Related :

Terrorism, Oil, Globalization, and the Impact of Computing

Why I Want Oil to Hit $120 per Barrel

Outsourced Education - the Latest Flattener

Batteries Set to Advance, Finally

The Economist has a great article on the history and near-future outlook for battery technology. Batteries have scarcely improved in the last century, and there have been too many false starts for a seasoned observer to get his hopes up too easily.  But this chart of battery capacity by unit weight, in particular, is something I have been seeking for a long time.  It vindicates my belief that lithium-ion technology is improving at a rate far faster than traditional nickel batteries (that have scarcely improved at all in the last half-century).  Note, importantly, that if we join the multiple curves, we see a strong indication of the classic accelerating technology exponential curve.  This time we know it's for real. 

This is exciting on multiple levels, because it opens to door to not just mainsteam electical vehicles in the next decade, but to a variety of wearable electronic devices, 20-30 hour laptop batteries, household robotics, and other applications that have not yet been imagined. 

Future projections are usually over-optimistic, you say?  Let's also not forget Stanford University's nanowire research to increase Lithium-ion battery capacity, which was wide acclaimed as among the most important scientific breakthroughs of 2007. 

Related :

A Future Timeline for Energy

A Future Timeline for Automobiles

Why I Want Oil to Hit $120 per Barrel

Is Technology Diffusion in a Lull?

There are minor but growing elements of evidence that the rate of technological change has moderated in this decade.  Whether this is a temporary trough that merely precedes a return to the trendline, or whether the trendline itself was greatly overestimated, will not be decisively known for some years.  In this article, I will attempt to examine some datapoints to determine whether we are at, or behind, where we would expect to be in 2008. 

There is overwhelming evidence that many seemingly unrelated technologies are progressing at an accelerating rate.  However, the exact magnitude to the accelerating gradient - the second derivative - is difficult to measure with precision.  Furthermore, there are periods where advancement can be significantly above or below any such trendline. 

This brings us to the chart below from Ray Kurzweil (from Wikipedia) :

This chart appears prominently in many of Kurzweil's writings, and brilliantly conveys the concept of how each major consumer technology reached the mainstream (as defined by a 25% US household penetration rate) in successively shorter times.  The horizontal axis represents the year in which the technology was invented. 

This chart was produced some years ago, and therein lies the problem.  If we were to update the chart to the present day, which technology would be the next addition after 'The Web'? 

Many technologies can claim to be the ones to occupy the next position on the chart.  IPods and other portable mp3 players, various Web 2.0 applications like social networking, and flat-panel TVs all reached the 25% level of mainstream adoption in under 6 years in accordance with an extrapolation of the chart through 2008.  However, it is debatable that any of these are 'revolutionary' technologies like the ones on the chart, rather than merely increments above incumbent predecessors.  The iPod merely improved upon the capacity and flexibility of the walkman, the plasma TV merely consumed less space than the tube TV, etc.  The technologies on the chart are all infrastructures of some sort, and it is clear that after 'The Web', we are challenged to find a suitable candidate for the next entry. 

Thus, we either are on the brink of some overdue technology emerging to reach 25% penetration of US households in 6 years or less, or the rapid diffusion of the Internet truly was a historical anomaly, and for the period from 2001 to 2008 we were merely correcting back to a trendline of much slower diffusion (where it take 10-15 years for a technology to each 25% penetration in the US).  One of the two has to be true, at least for an affluent society like the US.

This brings us to the third and final dimension of possibility.  This being the decade of globalization, with globalization itself being an expected natural progression of technological change, perhaps a US-centric chart itself was inappropriate to begin with.  Landline telephones and television sets still do not have 25% penetration in countries like India, but mobile phones jumped from zero to 10% penetration in under 7 years.  The oft-cited 'leapfrogging' of technologies that developing nations can benefit from is a crucial piece of technological diffusion, which would thus show a much smaller interval between 'telephones' and 'mobile phones' than in the US-based chart above.  Perhaps '10% Worldwide Household Penetration' is a more suitable measure than '25% US Household Penetration', which would then possibly show that there is no lull in worldwide technological adoption at all. 

I may try to put together this new worldwide chart.  The horizontal axis would not change, but the placement of datapoints along the vertical axis would.  Perhaps Kurzweil merely has to break out of US-centricity in order to strengthen his case and rebut most of his critics. 

The future will disclose the results to us soon enough.

(crossposted on TechSector)

Related :

Are You Acceleration Aware?

The Impact of Computing

These are the Best of Times

Nine Tantalizing Small Companies

In scouring the startup universe for the companies and technologies that can reshape human society and create entirely new industries, one has to play the role of a prospective Venture Capitalist, yet not be constrained by the need for a financial exit 3-6 years hence. 

Therefore, I have assembled a list of nine small companies, each with technologies that have the potential to create trillion-dollar economic disruptions by 2020, disruptions that most people have scarcely begun to imagine today.  Note that the emphasis is on the technologies rather than the companies themselves, as a startup requires much more than a revolutionary technology in order to prosper.  Management skills, team synergy, and execution efficiency are all equally important.  I predict that out of this list of nine companies, perhaps one or two will become titans, while the others will be acquired by larger companies for modest sums, enabling the technology to reach the market through the acquiring company. 

1) NanoSolar : NanoSolar produces low-cost solar cells that are manufactured by a process analogous to 'printing'.  The company's technology was selected by Popular Mechanics as the 'Innovation of the Year' for 2007, and Nanosolar's solar cells are significantly ahead of the Solar Energy Cost Curve.  The flexible, thin nature of Nanosolar's cells may enable them to be quickly incorporated onto the surfaces of many types of commercial buildings.  Nanosolar's first shipments have already occurred, and if we see several large deployments in the near future, this might just be the company that finally makes solar energy a mass-adopted consumer technology.  Nanosolar itself calls this the 'third wave' of solar power technology. 

2) Tesla Motors : I wrote about Tesla Motors in late 2006.  Tesla produces fully electric cars that can consume as little as 1 cent of electricity per mile.  They are about to deliver the first few hundred units of the $98,000 Tesla Roadster to customers, and while the Roadster is not a car that can be marketed to average consumers, Tesla intends to release a 4-door $50,000 sedan named 'WhiteStar' in 2010, and a $30,000 sedan by 2013.  The press coverage devoted to Tesla Motors has been impressive, but until the WhiteStar sedan successfully sells at least 10,000 units, Tesla will not have silenced critics who say the technology cannot be brought down to mass-market costs. 

3) Aptera Motors : When I first wrote about Tesla Motors, it was before I had heard about Aptera Motors.  While Tesla is aiming to produce a $30,000 sedan for 2013, Aptera already has an all-electric car due for late 2008 that is priced at just $27,000, while delivering the equivalent of between 200 and 330 mpg.  The fact that the vehicle has just three wheels may reduce mainstream appeal to some degree, but the futuristic appearance of the car will attract others.  Aptera Motors is a top candidate for winning the Automotive X-Prize in 2010. 

The simultaneous use of Nanosolar's solar panels with the all-electric cars from Tesla and Aptera may enable automotive driving to be powered by solar generated electricity for the average single-family household.  The combination of these two technologies would be the 'killer ap' of getting off of oil and onto fully renewable energy for cars. 

Related : Why I Want Oil to Hit $120/Barrel.

4) 23andMe : This company gets some press due to the fact that co-founder Anne Wojcicki is married to Sergey Brin, even as Google has poured $3.9M into 23andMe.  Aside from this, what 23andMe offers is an individual's personal genome for just $1000.  What a personal genome provides is a profile of which health conditions the customer is more or less susceptible to, and thus enables the customer to provide this information to his physician, and make the preventive lifestyle adjustments well in advance.  Proactive consumers will be able to extend their lifespans by systematically reducing their risks of ailments they are genetically predisposed to.  As the service is a function of computational power, the price of a personal genome will, of course, drop, and might become an integral part of the average person's medical records, as well as an expense that insurance covers. 

5) Desktop Factory : In 2008, Desktop Factory will begin to sell a $5000 device that functions as a 3-D printer, printing solid objects one layer at a time.  A user can scan almost any object (including a hand, foot, or head) and reproduce a miniature model of it (up to 5 X 5 X 5 inches).  The material used by the 3-D printer costs about $1 per cubic inch. 

The $5000 printer is a successor to similar $100,000 devices used in mechanical engineering and manufacturing firms.  Due to the Impact of Computing, consumer-targeted devices costing under $1000 will be available no later than 2014.  I envision an ecosystem where people invent their own objects (statuettes, toys, tools, etc.) and share the scanned templates of these objects on social networking sites like MySpace and Facebook.  People can thus 'share' actual objects over the Internet, through printing a downloaded template.  The cost of the printing material will drop over time as well.  A lot of fun is to be had, and expect an impressive array of brilliant ideas to come from people below the age of 16. 

6) Zazzle : Welcome to the age of the instapreneur.  Zazzle enables anyone to design their own consumer commodities like T-shirts, mugs, calendars, bumper stickers, etc. on demand.  If you have an idea, you can produce it on Zazzle with no start-up costs, and no inventory risks.  You profit even from the very first unit you sell, with no worries about breakeven thresholds.  You can produce an infinite number of products, limited only by your imagination.  At this point, those of you reading this are probably in the midst of an avalanche of ideas of products you would like to produce. 

While the bulk of Zazzle users today are would merely be vanity users who manage to sell under ten units of their creations, this new paradigm of low-cost customization will inevitably creep up to major industrial supply chains.  Even more interesting, think about #5 on this list, Desktop Factory, combining with Zazzle's application, into an amazing transformation of the very economics of manufacturing and mass-production. 

7) A123 Systems : Read here about how battery technology is finally set to advance after decades of stagnation.  A123 Systems is at the forefront of these advances, and has already received over $148 Million in private funding, as well as an article from the prestigious MIT Technology Review.  A123 is a supplier for GM's upcoming Volt, and has already has begun to sell a module to convert a Toyota Prius into a plug-in hybrid.  For choices beyond those offered by the #2 and #3 companies on this list, A123 Systems is poised to enable the creation of many new electric or plug-in hybrid vehicles, greatly increasing the the choices available to consumers seeking the equivalent of more than 50 mpg.  A123 may just become the Intel of batteries.  Combine A123's batteries with Nanosolar's cells, and the possibilities become even more interesting. 

8) Luxim : Brightness of light is measured in Lumens, not Watts, which is a measure of power consumption.  Consumers are learning that CFL and LED bulbs offer the same Lumens with just a fifth or a tenth of the Watts consumed by a traditional incandescent bulb, and billions of tons of coal are already being saved by the adoption of CFLs and LEDs.  Luxim, however, aims to take this even further.  Luxim makes tiny bulbs that deliver 8 times as many Lumens per Watt as incandescent bulbs.  The bulbs are too expensive for home use, but are already going into projection TVs.  With $61 Million in funding to date, Luxim's main hurdle will be to reduce the cost of their products enough to penetrate the vast home and office lighting market, which consumes tens of billions of bulbs each year.   

9) Ugobe : Ugobe sells a robotic dinosaur toy known as the Pleo.  A mere toy, especially a $350 toy, would not normally be on a list of technologies that promise to crease the fabric of human society.  However, a closer look at the Pleo reveals many impressive increments in the march to make inexpensive robots more lifelike.  The skin of the Pleo covers the joints, the Pleo has more advanced 'learning' abilities than $2500 robots from a few years ago, and the Pleo even cries when tortured, to the extent that it is difficult to watch this. 

The reason Ugobe is on this list is that I am curious to see what is the next product on their roadmap, so that I can gauge how quickly the technology is advancing.  The next logical step would be an artificial mammal of some sort, with greater intelligence and realistic fur.  The successful creation of this generation of robot would provide the datapoints to enable us to project the approximate arrival of future humanoid robots, for better or for worse.  Another company may leapfrog Ugobe in the meantime, but they are currently at the forefront of the race to create low-priced robotic toys. 

This concludes the list of nine companies that each could greatly alter our lives within the next several years.  Of these nine, at least three, Nanosolar, Tesla Motors, and 23andMe, have Google or Google's founders as investors.  The next 24 months have important milestones for each of these companies to cross (by which time I might have a new list of new companies).  For those that clear their respective near-term bars, there might just be a chance of attaining the dizzy heights that Google, Microsoft, or Intel has. 

Related :

The Impact of Computing

A Future Timeline for Automobiles

A Future Timeline for Energy

The Imminent Revolution in Lighting

Batteries Set to Advance, Finally

(crossposted on TechSector)

2007 Technology Breakthrough Roundup

One year ago, I posted a roundup of 2006 technology breakthroughs from MIT Technology Review.  Of the breakthroughs listed at that time, displays, plug-in hybrids, and solar cells showed impressive progress over the subsequent 12 months. 

Now, we arrive at the 2007 list, which has expanded from four categories last year to five this time. 

The Year in Software

The Year in Hardware : Gadgetmania

The Year in Energy : Solar power inches closer.

The Year in Biotechnology : Stem cell research methods that no longer need embryos.

The Year in Nanotechnology : Stanford University research into nanowires that dramatically increase battery capacity is the most promising breakthrough of 2007, in any discipline.  Think 30-hour laptop batteries. 

Most of the innovations in the articles above are in the laboratory phase, which means that about half will never progress enough to make it to market, and those that do will take 5 to 15 years to directly affect the lives of average people (remember that the laboratory-to-market transition period itself continues to shorten in most fields).  But each one of these breakthroughs has world-changing potential, and that there are so many fields advancing simultaneously guarantees a massive new wave of improvement to human lives. 

This scorching pace of innovation is entirely predictable, however.  To internalize the true rate of technological progress, one merely needs to appreciate :

The Milli, Micro, Nano, Pico curves

The Impact of Computing

The Accelerating Rate of Change

We are fortunate to live in an age when a single calendar year will invariably yield multiple technological breakthroughs, the details of which are easily accessible to laypeople.  In the 18th century, entire decades would pass without any observable technological improvements, and people knew that their children would experience a lifestyle identical to their own.  Today, we know with certainty that our lives in 2008 will have slight but distinct and numerous improvements in technological usage over 2007, just as 2007 was an improvement over 2006. 

Into the Future we continue, where 2008 awaits..

(cross-posted at TechSector).

Why I Want Oil to Hit $120 per Barrel

Here on The Futurist, we have a long tradition of seeking permanent independence from oil-drunk dictatorships and theocracies, with the pursuit of long-term gains taking precendence over the avoidance of short-term pain.  I refer you to :

Why $70/barrel Oil is Good for America (February 1, 2006).

$70+/Barrel Oil, the Non-Crisis (April 25, 2006).

Terrorism, Oil, Globalization, and the Impact of Computing (August 22, 2006).

When oil first hit $70/barrel nearly two years ago, there were widespread fears of the US economy tipping into recession.  I pointed out that a much smaller piece of the US economy has exposure to oil than was the case in 1974 or 1981, which were the last times such high prices were seen (in inflation-adjusted terms).  Google, Oracle, and VMWare are far less vulnerable to oil prices than General Motors and Federal Express.  Sure enough, after 2 years of oil prices hovering around $70, the US economy has successfully adapted to it.  The specter of the $70 barrier is behind us, permanently.  This chart from the Bureau of Labor Statistics shows the annualized rate of oil price inflation over the last few years. 

Notice how the rise from $20 to $80 led to import price inflation (the blue line) touching 10% for three years.  However, that rise is now behind us, with the settled price of $70/barrel or more no longer causing further inflation in the price of imported products.  Even more striking is the shrinkage in the US trade deficit.  Despite oil imports being as much as one third of the US trade deficit of about $60 Billion/month, the trade deficit has actually shrunk since the peak of 2006, contributing positively to GDP growth for the first time in over a decade (chart from BusinessWeek).  That the US economy can now take $70 and even $80 oil in stride is the biggest story that no one has noticed yet. 

However, $70 oil also fattens the coffers of the world's notorious 'Petrotyrants'.  From Iran to Venezuela to Saudi Arabia to Russia, one can note that there is a rather close corelation between an economy being heavily dependent on oil exports and the leaders of that country resisting or even rescinding democracy. 

Thomas Friedman has many interesting articles on the subject, such as his 'Fill 'Er Up With Dictators' :

But as oil has moved to $60 to $70 a barrel, it has fostered a counterwave — a wave of authoritarian leaders who are not only able to ensconce themselves in power because of huge oil profits but also to use their oil wealth to poison the global system — to get it to look the other way at genocide, or ignore an Iranian leader who says from one side of his mouth that the Holocaust is a myth and from the other that Iran would never dream of developing nuclear weapons, or to indulge a buffoon like Chávez, who uses Venezuela’s oil riches to try to sway democratic elections in Latin America and promote an economic populism that will eventually lead his country into a ditch.

But Mr. Friedman is a bit self-contradictory on which outcome he wants, as evidenced across his New York Times columns.

Over here, he says :

In short, the best tool we have for curbing Iran’s influence is not containment or engagement, but getting the price of oil down

And here, he says :

So here’s my prediction: You tell me the price of oil, and I’ll tell you what kind of Russia you’ll have. If the price stays at $60 a barrel, it’s going to be more like Venezuela, because its leaders will have plenty of money to indulge their worst instincts, with too few checks and balances. If the price falls to $30, it will be more like Norway. If the price falls to $15 a barrel, it could become more like America

Yet over here he says :

Either tax gasoline by another 50 cents to $1 a gallon at the pump, or set a $50 floor price per barrel of oil sold in America. Once energy entrepreneurs know they will never again be undercut by cheap oil, you’ll see an explosion of innovation in alternatives.

As well as over here :

And by not setting a hard floor price for oil to promote alternative energy, we are only helping to subsidize bad governance by Arab leaders toward their people and bad behavior by Americans toward the climate.

All of these articles were written within a 4-month period in early 2007.  Both philosophies are true by themselves, but they are mutually exclusive.  Mr. Friedman, what do you want?  Higher oil prices or lower oil prices?

But forget about Mr. Friedman wanting it both ways.  Instead, I am going to go with the second choice, that of higher oil prices.  I see this as a golden opportunity for permanent, far-reaching, multifaceted geopolitical change.  The US economy has successfully adapted to a permanent $70/barrel oil price with almost no real pain, and thus it is the time to take the bull by the horns, and lure the Petrotyrants into the ultimate irreversible trap. 

It is time to hope that the price of oil rises to $120/barrel by 2010, and stays above that level permanently. 

Why, you may ask?  Won't such a high price make Iran, Venezuela, Saudi Arabia, Russia, Nigeria, Sudan, Kazakhstan, and others even wealthier, without them having done anything to earn it?  Won't it make Sudan more genocidal, and Iran more able to equip terrorists?  Won't Saudi Arabia be able to fund even more Madrasas across the world? 

Sure it will, for a time.  But consider the perils of burning the candle at both ends.

But won't this also cause economic suffering in the US?  For a time, yes.  Gasoline will be at $5/gallon, and the trade deficit will temporarily widen.  I claim the possible recession will be brief, if there even is one at all, as the run-up from the present price of $80/barrel up to $120/barrel is already less of a shock than the jump from $20 to $80 that we already have successfully sustained.  I say all of this is worthwhile short-term pain, for when the quietly toiling engine of technological innovation emerges from its chrysalis, it will be gigantic. 

The technological climate of 2007 is very different from that of 1974 or 1981.  There is so much breadth and depth in energy innovation right now, even at the present $70-$80/barrel, that $120/barrel will move the technology and economics of alternative energy into fast-forward.  Currently, the petroleum market is shielded from exposure to both the electricity market and the agricultural market.  However, upcoming electric and plug-in hybrid automobile technologies consume electricity at an equivalent cost of just $1/gallon.  Furthermore, electricity can be generated from multiple sources that exist in almost every country, eliminating the weak position that oil importers are in relative to oil exporting nations.  With gasoline at $5/gallon, consumers will migrate towards hybrids, plug-in hybrids, and electric vehicles so rapidly that the auto manufacturers will start engaging in aggressive competition to lower prices and accelerate innovation.  This will greatly widen the fronts at which the oil market is exposed to the far cheaper and decentralized electricity market.  This spells trouble for oil producers who have to compete with electricity that is 3-5X cheaper in providing the same transportation. 

Simultaneously, cellulostic and algae-derived ethanol research efforts will get supercharged, greatly increasing the probability of a breakthrough that enables the attractive math of cellulose or algae to replace the unimpressive economics of corn ethanol.  If ethanol from switchgrass or algae is more compelling than oil at $120/barrel, oil has yet another enemy in addition to electricity.  The combination of electric vehicle and cellulose/algae ethanol technologies will act as a 1-2 punch to slash the consumption of oil across both the US and China permanently within just a few short years. 

Then, the fun begins.  The terrorists and despots who got lured into profligate spending under $120 oil will eventually find that the demand for their exports is plummeting.  Furthermore, the thing about subsidies such as those that Iran doles out is that they are self-propagating.  Note that in 2005, Iran exported $44 billion in oil, but spent $25 billion in subsidies, meaning that if oil fell to $30/barrel, Iran's export revenue would effectively become zero if the same level of subsidies are maintained.  34 cent/gallon gasoline leads to more car purchases and hence more demand for gasoline, increasing the cost of maintaining the subsidies, and hence the oil price floor at which Iran's export revenues would shrink to zero.  At $120/barrel, the subsidy obligation will be so burdensome that even a drop back down to $70/barrel would lead to a revenue falling behind expenses.  At the same time, China will have no choice but to aid in the hastening of these technological advances, as they will have to shift their priorities from locking up oil contracts to reducing the crushing cost of oil imports at $120/barrel. 

On the other hand, if oil stays at or below $70/barrel for the long term, Petrotyrants will survive to continue their nefarious activities for at least another 20 years to come.  China, too, will continue their current stance of propping up Petrotyrants. 

Thus, I say bring $120 on.  We outspent the Soviet Union on defense, and we can outspend the Petrotyrants while setting them up for an inevitable cornering and collapse.  Give me $120/barrel oil by 2010, and I will give you the demise of Petrotyranny in Russia, Iran, and Venezuela by 2015.  Count on it. 

Update (10/19/07) : We're up to $90/barrel already!  While there will be ups and downs in the traded daily price, and the gloomy media coverage might appear frightening, be patient and disciplined.  The short-term pain will lead to permanent long-term gain. 

Update (5/22/08) : Oil has crossed $120/barrel, and is currently as high as $133.  Such a rapid rise usually is followed by a precipitous drop, and we need the price to stay above $120 for an extended period to realize the benefits described in the article.  I might do a v 2.0 in 2008 itself if the price stays high. 

Related :

A Future Timeline for Automobiles

A Future Timeline for Energy

Terrorism, Oil, Globalization, and the Impact of Computing

 

 

 

 

 

 

BusinessWeek Slideshow : 10 Green Technologies That Could Change Your Life

View BusinessWeek' slideshow over here.  I must point out that my Future Timeline for Energy, written back on February 25, 2007, has described many of the items that BusinessWeek noticed some 7 months later.  In fact, the following articles go back even earlier :

CFLs and LEDs : September 25, 2006

Tesla Roadster : December 26, 2006

This is not the first time an article here on The Futurist was written months before BusinessWeek featured the same technology.  My article Terrorism, Oil, Globalization, and the Impact of Computing, from August 22, 2006, predated a BusinessWeek slideshow on the same topic released on February 20, 2007, or 6 months later.  View the slideshow here.

VMWare and the Next Silicon Valley Wealth Cycle

When Google conducted an IPO in August of 2004, it was the first multibillion-dollar offering for a Silicon Valley company after the deep recession of 2001-03.  Google achieved a market capitalization of over $20 billion on the first day, and several hundred employees became millionaires.  The infusion of new money into Silicon Valley was a major factor in shaking off the final stages of the preceding bust.  Today, Google's market cap stands at over $160 billion. 

Now, almost exactly 3 years later, another company called VMWare (VMW) has had an IPO, achieving a market capitalization of $23 billion, bringing overnight riches to many employees.  Amazingly, VMWare was acquired by EMC for just $635 Million in December of 2003.  That means the valuation of the company has risen about about 36X in just over 3.5 years, in a sector of technology that very few people are familiar with. 

VMWare's business is entirely different from Google's, but its effect on Silicon Valley will be similar.  An infusion of billions of dollars of cash into the ecosystem causes tremors in the tectonic plates of the Valley.  The event refills venture capitalist coffers which, in turn, fertilizes the Valley to grow thick with another wave of startups.  The cycle thus begins anew. 

Without fail, major liquidity events like this have occurred after intervals no longer than 4 years, even if there is a steep downturn in between (as in 2001-03).  There have been other, smaller IPOs in recent months, such as Cavium Networks (CAVM), Aruba Networks (ARUN), and Infinera (INFN), each weighing in at between $1.1 and $1.5 Billion.  The next cycle has begun in earnest.  Let's see where it takes us. 

Film-Quality Animation on the Average PC

I happened to see this story on MIT Technology Review :

Now, Adobe Systems, the company famous for tools like Photoshop and Acrobat Reader, is developing software that could bring the power of a Hollywood animation studio to the average computer and let users render high-quality graphics in real time. Such software could be useful for displaying ever-more-realistic computer games on PCs and for allowing the average computer user to design complex and lifelike animations.

The Impact of Computing mandates that any computationally driven product or capability exponentially drops in cost by 30% to 60% every year.  Each film that was considered to be a breakthrough in computer-derived special effects, from Toy Story to the Lord of the Rings Trilogy, used technology that continues to become commoditized.  What was groundbreaking from Pixar in 1995 is today affordable to second-tier video game companies designing games on $2 million budgets, and television programs intended for syndication and cable.  Before long, the prices inevitably reach the consumer. 

Needless to say, this greatly enhances the reach of the nascent cottage industry of Machinima, and eventually will lead to small groups of 2-3 people producing full-length animated feature films that can be distributed on the Internet.  I have written about this in detail in my article from 4/1/2006, The Next Big Thing in Entertainment, particularly in Part II.  This development from Adobe is one of the necessary steps towards realizing the vision that I outlined in the original article.  Machinima will be to Hollywood what the blogosphere became to Big Media. 

Related :

The Next Big Thing in Entertainment

The Technological Progression of Video Games

The Impact of Computing

Next Generation Graphics - A Good Intro

The Top Ten Transhumanist Technologies

The Lifeboat Foundation has a special report detailing their view of the top ten transhumanist technologies that have some probability of 25 to 30-year availability.  Transhumanism is a movement devoted to using technologies to transcend biology and enhance human capabilities. 

I am going to list out each of the ten technologies described in the report, provide my own assessment of high, medium, or low probability or mass-market availability by a given time horizon, and link to prior articles written on The Futurist about the subject.

10. Cryonics : 2025 - Low, 2050 - Moderate

I can see the value in someone who is severely maimed or crippled opting to freeze themselves until better technologies become available for full restoration.  But outside of that, the problem with cryonics is that very few young people will opt to risk missing their present lives to go into freezing, and elderly people can only benefit after revival when or if age-reversal technologies become available.  Since going into cryonic freezing requires someone else to decide when to revive you, and any cryonic 'will' may not anticipate numerous future variables that could complicate execution of your instructions, this is a bit too risky, even if it were possible.

9. Virtual Reality : 2012 - Moderate, 2020 - High

The Technological Progression of Video Games

The Next Big Thing in Entertainment, Part I, II, and III

The Mainstreaming of Virtual Reality

8. Gene Therapy : 2015 - Moderate, 2025 - High

The good news here is that gene sequencing techniques continue to become faster due to the computers used in the process themselves benefiting from Moore's Law.  In the late 1980s, it was thought that the human genome would take decades to sequence.  It ended up taking only years by the late 1990s, and today, would take only months.  Soon, it will be cost-effective for every middle-class person to get their own personal genome sequenced, and get customized medicines made just for them. 

Are you Prepared to Live to 100?

7. Space Colonization : 2025 - Low, 2050 - Moderate

While this is a staple premise of most science fiction, I do not think that space colonization may ever take the form that is popularly imagined.  Technology #2 on this list, mind uploading, and technology #5, self-replicating robots, will probably appear sooner than any capability to build cities on Mars.  Thus, a large spaceship and human crew becomes far less efficient than entire human minds loaded into tiny or even microscopic robots that can self-replicate.  A human body may never visit another star system, but copies of human minds could very well do so.

Nonetheless, if other transhumanist technologies do not happen, advances in transportation speed may enable space exploration in upcoming centuries.

6. Cybernetics : 2015 - High

Artificial limbs, ears, and organs are already available, and continue to improve.  Artificial and enhanced muscle, skin, and eyes are not far. 

5. Autonomous Self-Replicating Robots : 2030 - Moderate

This is a technology that is frightening, due to the ease at which humans could be quickly driven to extinction through a malfunction that replicates rouge robots.  Assuming a disaster does not occur, this is the most practical means of space exploration and colonization, particular if the robots contain uploads of human minds, as per #2.

4. Molecular Manufacturing : 2020 - Moderate, 2030 - High

This is entirely predictable through the Milli, Micro, Nano, Pico curves. 

3. Megascale Engineering (in space) : 2040 - Moderate

From the Great Wall of China in ancient times to Dubai's Palm Islands today, man-made structures are already visible from space.  But to achieve transhumanism, the same must be done in space.  Eventually, elevators extending hundreds of miles into space, space stations much larger than the current ISS (240 feet), and vast orbital solar reflectors will be built.  But, as stated in item #7, I don't think true megascale projects (over 1000 km in width) will happen before other transhumanist technologies render the need for them obsolete.

2. Mind Uploading : 2050 - Moderate

This is what I believe to be the most important technology on this list.  Today, when a person's hardware dies, their software in the form of their thoughts, memories, and humor, necessarily must also die.  This is impractical in a world where software files in the form of video, music, spreadsheets, documents, etc. can be copied to an indefinite number of hardware objects. 

If human thoughts can reside on a substrate other than human brain matter, then the 'files' can be backed up.  That is all there is to it. 

1. Artificial General Intelligence : 2050 - Moderate

This is too vast of a subject to discuss here.  Some evidence of progress appears in unexpected places, such as when, in 1997, IBM's Deep Blue defeated Gary Kasparov in a chess game.  Ray Kurzweil believes that an artificial intelligence will pass the Turing Test (a bellwether test of AI) by 2029.  We will have to wait and see, but expect the unexpected, when you least expect it. 

A Hornet-sized Robotic Insect Can Now Fly

A robotic insect, similar in size and weight to a wasp or hornet, has successfully taken flight at Harvard University (article and photo at MIT Technology Review).  This is an amazing breakthrough, because just a couple of years ago, such robots were pigeon-sized, and thus far less useful for detailed military and police surveillance. 

At the moment, the flight path is still only vertical, and the power source is external. Further advances in the carbon polymer materials used in this robot will reduce weight further, enabling greater flight capabilities.  Additional robotics advances will reduce size down to housefly or even mosquito dimensions.  Technological improvements in batteries will provide on-board power with enough flight time to be useful.  All of this will take 5-8 years to accomplish.  After that, it may take another 3 years to achieve the capabilities for mass-production.  Even then, the price may be greater than $10,000 per units.

Needless to say, by 2017-2020, this may be a very important military technology, where thousands of such insects are released across a country or region known to contain terrorists.  They could land on branches, light fixtures, and window panes, sending information to one another as well as to military intelligence.  Further into the future, if these are ever available for private use, than that could become quite complicated.

Liquid Mirrors May Boost Future Telescopes

On September 28, 2006, I made the case that telescopic power is indeed an accelerating technology, set to improve at an estimated rate of 26% a year for the next 30 years.  I believe that increasingly more powerful telescopes will ensure that we discover the first genuinely Earth-like planet in another star system by 2011, and that by 2025, we will have discovered thousands of such planets. 

In support of this thesis of accelerating telescope improvement, I had to bring attention to one particular prospective technology that greatly increases the chances of this predicted rate of improvement holding true : Liquid mirrors that could at some point replace glass in the largest telescopes (from MIT Technology Review). 

The mirror is a pool of salt-based liquids that only freeze at very lower temperatures, coated with a silver film.  While practical usage is at least 20 years away, the details reveal a technology that is brilliantly simple, yet tantalizingly capable of addressing almost all of the problems facing the construction of giant telescopes.  Glass mirrors are exceedingly difficult to scale to larger sizes, and even the most minor defect can render a mirror useless.  Reflective liquid, by contrast, can be scaled up almost indefinitely, limited only by the perimeter of the enclosure it is placed in.  External blows that would crack or scratch a glass mirror would have no effect on a liquid that could quickly return to the original shape.

I don't expect updates on this technology in the near future, but the next logical step would be for a smaller telescope to be demonstrated to use this technology.  If that succeeds, the ultimate goal would be, by 2030, a massive telescope more than 200 meters in diameter placed on the Moon, where the sky is free of atmospheric distortions, and the ground is free of tiny seismic shaking.  This would enable us to observe Earth-like planets at a distance of up to 100 light years, as well as observe individual stars near the center of the Milky Way galaxy (30,000 light years away). 

Related :

Are You Acceleration Aware?

Finding Earth-like Planets Will Soon be Possible

The Semantic Web

The World Wide Web, after just 12 years in mainstream use, has become an infrastructure accessed by hundreds of millions of people every day, and the medium through which trillions of dollars a year are transacted.  In this short period, the Web has already been through a boom, a crippling bust, and a renewal to full grandeur in the modern era of 'Web 2.0'.

But imagine, if you could, a Web in which web sites are not just readable in human languages, but in which information is understandable by software to the extent that computers themselves would be able to perform the task of sharing and combining information.  In other words, a Web in which machines can interpret the Web more readily, in order to make it more useful for humans.  This vision for a future Internet is known as the Semantic Web. 

Why is this useful?  Suppose that scientific research papers were published in a Semantic Web language that enabled their content to be integrated with other research publications across the world, making research collaboration vastly more efficient.  For example, a scientist running an experiment can publish his data in Semantic format, and another scientist not acquainted with the first one could search for the data and build off of it in real time.  Tim Berners-Lee, as far back as 2001, said that this "will likely profoundly change the very nature of how scientific knowledge is produced and shared, in ways that we can now barely imagine." 

Some are already referring to the Semantic Web as 'Web 3.0'.  This type of labeling is a reliable litmus test of a technology falling into the clutches of emotional hype, and thus caution is warranted in assessing the true impact of it.  I believe that the true impact of the Semantic Web will not manifest itself until 2012 or later.  Nonetheless, the Semantic Web could do for scientific research what email did for postal correspondence and what MapQuest did for finding directions - eliminate almost all of the time wasted in the exchange of information. 

New Gadgets for the Digital Home - A BusinessWeek Slideshow

BusinessWeek has a slideshow revealing new electronic devices that a consumer could use to enhance (or complicate) certain aspects of daily life.  Among these is the very promising Sunlight Direct System, which I discussed back on September 5, 2006.  Others, such as the Lawnbott ($2500), cost far more than the low-tech solution of hiring people to mow your lawn for the entire expected life of the device, ensuring that mass-market adoption is at least 4-5 years away. 

All of this is a very strong and predictable manifestation of The Impact of Computing, which mandates that entirely new categories of consumer electronics appear at regular intervals, and that they subsequently become cheaper yet more powerful at a consistent rate each year.  Let us observe each of these functional categories, and the rate of price declines/feature enhancements that they experience.

A Future Timeline for Automobiles

Many streams of accelerating technological change, from energy to The Impact of Computing, will find themselves intersecting in one of the largest consumer product industries of all.  Over 70 million automobiles were produced worldwide in 2006, with rapid market penetration underway in India and China.  Indisputably, cars greatly affect the lives of consumers, the economies of nations, and the market forces of technological change. 

I thus present a speculative timeline of technological and economic events that will happen for automobiles.  This has numerous points of intersection with the Future Timeline for Energy. 

2007 : The Tesla Roadster emerges to not only bring Silicon Valley change agents together to sow the seeds of disruption in the automotive industry, but also to immediately transform the image of electrical vehicles from 'punishment cars' to status symbols of dramatic sex appeal.  Even at the price of $92,000, demand outstrips supply by an impressive margin. 

2009 : The Automotive X-Prize of $25 Million (or more) is successfully claimed by a car designed to meet the 100 mpg/mass-producable goal set by the X Prize Foundation.  Numerous companies spring forth out of prototypes tested in the contest. 

2010 : With gasoline at $4/gallon, established automobile companies simultaneously release plug-in hybrid vehicles.  Hybrid, plug-in hybrid, and fully electrical cars represent 5% of total new automobiles sold in the US, even if tax incentives have been a large stimulus.  The habit of plugging in a car overnight to charge it starts to become routine for homeowners with such cars, but apartment dwellers are at a disadvantage in this regard, not having an outlet near their parking spot. 

2011 : Two or more iPod ports, 10-inch flat-screen displays for back seat passengers, parking space detection technology, and embedded Wi-Fi adapters that wirelessly can transfer files into the vehicle's hard drive from up to 500 feet away are standard features for many new cars in the $40,000+ price tier. 

2012 : Over 100 million new automobiles are produced in 2012, up from 70 million in 2006.  All major auto manufacturers are racing to incorporate new nanomaterials that are lighter than aluminium yet stronger and more malleable than steel.  The average weight of cars has dropped by about 5% from what it was for the equivalent style in 2007. 

2013 : Tesla Motors releases a fully electric 4-door sedan that is available for under $40,000, which is only 33% more than the $30,000 that the typical fully-loaded gasoline-only V6 Accord or Camry sells for in 2013. 

2014 : Self-driving cars are now available in the luxury tier (priced $100,000 or higher).  A user simply enters in the destination, and the car charts out a path (similar to Google Maps) and proceeds on it, in compliance with traffic laws.  However, a software malfunction results in a major traffic pile-up that garners national media attention for a week.  Subsequently, self-driving technologies are shunned despite their superior statistical performance relative to human drivers. 

2015 : As predicted in early 2006 on The Futurist, a 4-door sedan with a 240 hp engine, yet costing only 5 cents/mile to operate (the equivalent of 60 mpg of gasoline), is widely available for $35,000 (which is within the middle-class price band by 2015 under moderate assumptions for economic growth).  This is the result of combined advances in energy, lighter nanomaterials, and computerized systems. 

2016 : An odd change has occurred in the economics of car depreciation.  Between 1980 and 2007, annual car depreciation rates decreased due to higher quality materials and better engine design, reaching as little as 12-16% a year for the first 5 years of ownership.  Technology pushed back the forces of depreciation. 

However, by 2016, 40% of a car's initial purchase price is comprised of electronics (up from under 20% in 2007 and just 5% in 1985), which depreciate at a rate of 25-40% a year.  The entire value of the car is pulled along by the 40% of it that undergoes rapid price declines, and thus total car depreciation is now occuring at a faster rate of up to 20% a year for the first 5 years.  This is a natural progression of The Impact of Computing, and wealthier consumers are increasingly buying new cars as 'upgrades' to replace models with obsolete technologies after 5-7 years, much as they would upgrade a game console, rather than waiting until mechanical failure occurs in their current car.  Consumers also conduct their own upgrades of certain easily-replaced components, much as they would upgrade the memory or hard drive of a PC. Technology has thus accelerated the forces of depreciation. 

2018 : Among new cars sold, gasoline-only vehicles are now a minority.  Millions of electricity-only vehicles are charged through solar panels on a daily basis, relieving those consumers of a fuel expenditure that was as high as $2000/year in 2007.  Even when sunlight is obscured and the grid is used, some electrical vehicles cost as little as 1 cent/mile to operate.

2020 : New safety technologies that began to appear in mainstream cars around 2012, such as night vision, lane departure correction, and collision-avoiding cruise control, have replaced the existing fleet of older cars over the decade, and now US annual traffic fatalities have dropped to 25,000 in 2020 from 43,000 in 2005.  Given the larger US population in 2020 (about 350 Million), this is a reduction in traffic deaths by half on a per-capita basis. 

2024 : Self-driving cars have overcome the stigma of a decade prior, and are now widely used.  But they still have not fully displaced manual driving, due to user preferences in this regard.  Certain highways permit only self-driven cars, with common speed limits of 100 mph or more. 

2025-30 : Electricity (indeed, clean electricity) now fuels nearly all passenger car miles driven in the US.  There is no longer any significant fuel consumption cost associated with driving a car, although battery maintenance is a new aspect of car ownership.  Many car bodies now include solar energy absorbant materials that charge a parked car during periods of sunlight.  Leaving such cars out in the sun has supplanted the practice of parking in the shade or in covered parking.

Pervasive use of advanced nanomaterials has ensured that the average car weighs only 60% as much as a 2007 counterpart, but yet is over twice as resistant to dents. 

______________________________________________________________

I believe that this timeline represents the the combination of median forecasts across all technological and economic trends that influence cars, and will be perceived as too optimistic or too pessimistic by an equal number of readers.  Let's see how closely reality matches this timeline. 

Outsourced Education - the Latest Flattener

I have come across a modest yet revolutionary concept from an Indian startup by the name of Tutorvista.  The concept is not a complex one, but if this company or others like it are even moderately successful with this business model, we stand to chip away at one of society's most stubborn obstacles to economic upliftment. 

Tutorvista offers unlimited online tutoring in English and Mathematics for just $100 a month, as well as preparatory coaching for standardized tests at fees under a tenth of those charged by traditional brand-name classes.  All 500+ tutors are in India, have degrees in education and the subject taught, and work from home.  I believe there are about 2500 students subscribing to the service to date.  Tutorvista does, however, need to make substantial improvements to their website if they hope to acquire hundreds of thousands of new customers.

The tutoring sessions are interactive through the use of technologies that were not even available to consumers just 7 years ago.  Real-time verbal dialogue is conducted via VoIP, while an onscreen electronic whiteboard enables written exchanges.  Soon, low-cost videoconferencing technologies will combine with high-bandwidth Internet connections to expand interactivity into not just face-to-face lessons, but even multi-party discussions with each participant's face in one division of the screen.

Normally, such tutoring would cost $30 to $50 an hour or more.  Yes, pessimists, racists, and socialists (sometimes the same people) will whine about private tutors losing their wages to 'outsourcing'.  But this loss is dwarfed by gains derived from having access to competent individual tutoring now available to underprivileged or simply ambitious students in America.  Is a 5th grader so keen on algebra that he wants to soak up 8th grade material?  The risk to parents is just $100 (and even that fee can probably be transferred to a lower grade if the material turns out to be too advanced).  Does a student feel embarassed about persistent difficulties with a particular subject?  This model offers privacy that did not exist before. 

Of course, to benefit from Tutorvista, an American student needs both a broadband connection and the self-discipline to study hard.  It is arguable that students for which these two conditions are true do not corelate very closely with those who need the most help.  Yet, I could predict the formation of innovative scholarships devised to grant high-school students some form of 'unlimited Tutorvista access until high-school graduation'.  It may even become a popular perk offered by the parent's employer.

This, like Skype, Wikipedia, Zillow, and MapQuest, is yet another dramatic deflation in the costs (whether monetary or time/hassle-oriented) of accessing a key human need, and is a necessary step in the acceleration of economic growth.  If Tutorvista or a similar company can succeed, the benefits to the US, Indian, and global economies will colossally dwarf the losses of in-person tutor wages and private school fees.  Step back and take a moment to ponder what you have just read - the paradigm for the delivery of education has just changed. 

World and Asian Semiconductor Revenue Growth

I stumbled upon something while reading the Asian Development Bank's report on the world economy.  No big surprises here, but one tiny chart stood out.  The column chart of WW and Asian semiconductor sales from 2001 to 2006 indicates that while Asia accounted for just one third of semiconductor sales in 2001, they comprise half of it today. 

This encompasses a number of the main topics I discuss on The Futurist.  From The Impact of Computing (which is thus higher in Asia than in the rest of the world) to the accelerating rate of GDP growth (which necessitates so many large Asian countries, totaling 3 billion people, to all grow at 6% or more per year, just to keep total world GDP at its trendline).  From cellphone dispersion to PC adoption to enterprise server and router usage, semiconductor sales are just about the best indicator of economic and technological progress. 

Let's see how big of a share of world seminconductor revenues Asia can ultimately consume before the relative maturity of the US market is emulated. 

Related :

Are You Acceleration Aware?

Economic Growth is Exponential and Accelerating

The Mainstreaming of Virtual Reality

BusinessWeek has an article and slideshow on the rapidly diversifying applications of advanced VR technology. 

This is a subject that has been discussed heavily here on The Futurist, through articles like The Next Big Thing in Entertainment, Parts I, II, and III, as well as Virtual Touch Brings VR Closer.  The coverage of this topic by BusinessWeek is a necessary and tantalizing step towards the creation of mass-market products and technologies that will enhance productivity, defense, healthcare, and entertainment. 

Technologically, these applications and systems are heavily encapsulated within The Impact of Computing with very few components that are not exponentially improving.  Thus, cost-performance improvements of 30-58% a year are guaranteed, and will result in stunningly compelling experiences as soon as 2012. 

To the extent that many people who seek reading material about futurism are primarily driven by the eagerness to experience 'new types of fun', this area, more than any other discussed here, will deliver the majority of new fun that consumers can experience in coming years. 

Update (4/7/07) : HP unveils a variety of new technologies, from screens to sensors, designed to augment the realism of games.   

A Future Timeline for Energy

There are many independent streams of technological progress currently underway in the field of energy.  I have written several individual articles on various breakthroughs in lighting, electic cars, ethanol, etc.  But the time has come for a 'grand unifying' article that combines these seemingly unrelated innovations into a timeline for when we can expect which advances to have a measurable impact. 

I hereby present a possible future timeline for disruptive improvements in energy technology, economics, and mass market adoption.

2007 : China's greenhouse gas emissions surpass that of the US.  China requires 4.3 times as much energy as the US to produce each dollar of GDP. 

2007-09 : Compact Fluorescent Lightbulbs and Light Emitting Diodes begin to replace incandescent bulbs across the US.  By 2010, the typical US household is saving over $100 per year in electricity costs.

2007-10 : Corn-based ethanol continues to generate only a small percentage of vehicle fuel in the US, despite the governmental support behind it. 

2009 : The Automotive X-Prize of $25 Million (or more) is successfully claimed by a car designed to meet the 100 mpg/mass-producable goal set by the X Prize Foundation. 

2010 : Hybrid, plug-in hybrid, and fully electrical cars represent 5% of total new automobiles sold in the US, even if tax incentives have been a large stimulus.  There are concerns about the load on the electrical grid from all of these new cars drawing power from ordinary home outlets, but given the massive reduction in household electricity consumed by lighting, this surplus nicely offsets the electrical demands of plug-in cars. 

2011 : Thousands of wind turbines have been erected across Alaska, Canada, Russia, and the northern waters of Europe by now.  Some European countries now derive over 25% of their electricity from wind. 

2012 : Cellulostic ethanol technology becomes cost-effective and scalable.  Biomass-derived fueling stations finally begin to find their way into most US population centers, but still displace only 15-20% of US gasoline consumption.  New oil extraction technologies continue to exert downward pressure on oil prices, resulting in a continual tussle between biomass fuel and oil-derived fuel for cost competitiveness.  All of this is bad news for oil-producing dictatorships. 

2013 : Tesla Motors releases a fully electric 4-door sedan that is available for just $40,000, which is only 33% more than the $30,000 that the typical fully-loaded gasoline-only V6 Accord or Camry sells for in 2013. 

2014 : Solar panels have become inexpensive enough for a typical house in California or Arizona to financially break even in under 5 years after installation, even after accounting for the cost of capital.  Over 3 million US single-family homes have solar panels on their rooftops by now, and many of these homes are able to charge up their plug-in hybrids or fully electric vehicles entirely free of cost. 

2015 : As predicted in early 2006 on The Futurist, a 4-door sedan with a 240 hp engine, yet costing only 5 cents/mile to operate (the equivalent of 60 mpg of gasoline), is widely available for $35,000 (which is within the middle-class price band by 2015 under moderate assumptions for economic growth).  This is the result of not only energy innovation, but also lighter, stronger nanomaterials being used in some body components, as well as computerized systems that make energy usage more efficient within the car. 

2016 : Large industrial-grade solar panels, enhanced with nanotechnology, achieve unprecedented conversion rates of solar energy to electricity.  The US has completed the construction of major solar farms in California, Nevada, and Arizona, collectively covering hundreds of square miles of desert land.  Similar farms are under construction in Australia, India, Saudi Arabia, Iraq, and Sahara Desert countries.  10% of world electricity demand is now met through photovoltaics. 

2018 : Among new cars sold, gasoline-only vehicles are now a minority.  Millions of electricity-only vehicles are charged through solar panels on a daily basis, relieving those consumers of a fuel expenditure that was as high as $2000/year in 2007.  Even when sunlight is obscured and the grid is used, some electrical vehicles cost as little as 1 cent/mile to operate. 

2020 : Gasoline fuels under one third of the passenger car miles driven in the US.  Electricity and biomass fuels account for the remaining two-thirds, with electricity being the one crowding the other two out (electricity itself is primarily derived through solar, wind, and nuclear sources by now).  US total oil consumption, in barrels, has decreased only somewhat, however, due to commercial airline flights (which still use petroleum-derived fuels).  At the same time, oil consumption in relation to total US GDP is actually under half of what it was in 2007. 

2025-30 : Electricity (indeed, clean electricity) now fuels nearly all passenger car miles driven in the US.  There is no longer any significant fuel consumption cost associated with driving a car, although battery maintenance is a new aspect of car ownership.  The average car weighs only 60% as much as the 2007 counterpart, but yet is over twice as resistant to dents.  Most cars are self-driven by on-board intelligence, so human drivers can literally sleep in the car while being delivered to their destination. 

Wind, solar, and nuclear technologies collectively generate 75% of the world's electricity needs. 

Crude oil is, however, still used to create jet fuel.  Since some passenger jets are capable of hypersonic speeds, oil consumption remains significant in this area. 

Worldwide energy consumption is now 75% higher than what it was in 2007, moving us from 0.71 to 0.74 on the Kardashev scale. 

Is this timeline too optimistic?  I found this research report from Clean Edge that goes out to 2016, and they project that renewable energy industry revenue will grow by 15% a year from 2006 to 2016.

Let's see how closely reality matches this timeline. 

Update (9/15/07) : Seven months after I created this timeline, BusinessWeek has a slideshow that predicts the impact of many of the same technologies.  In fact, CFLs, LEDs, the Tesla Roadster, Plug-in Hybrids, etc. are all items I wrote about even earlier. 

BusinessWeek : The Greatest Innovations of All Time

BusinessWeek has an article and slideshow featuring a list of what the author estimates to be the 15 historical innovations that have created the greatest improvements to human life.  Not all the innovations are technological or scientific - some are financial, politcal, and legal.

Rather than debate the candidates or the ranking, what leapt out at me is something that most people overlook, but something I have nearly made the primary theme of this blog :

Notice that of the 15 innovations, 11-12 emerged in the last 200 years, and only achieved wide participation/ownership in the last 60-80 years.  The 5000 years preceding the 19th century had only 3-4 of these 15 innovations reach maturity.  Even a major dispute with the list will inevitably lead to a different list that is similarly weighted very heavily to the recent past. 

Accelerating change is visible in this list, even if the concept is not mentioned (if noticed at all) by the author.  This also tells us that the next 30 years will have several new innovations disruptive enough to earn a place on such a list. 

What will the next great innovations be, under this methodology?  I think nanotechnology is one, and virtual reality is another that could make this list by 2020.  Time will tell, but the most important thing to internalize is that the interval between each major transformative leap continues to shorten. 

The Seeds of Technology

As we have seen before, technological change follows a smooth, exponential curve, with a relatively predictable rate of progress.  However, the fruits of this change accrue to those individuals, corporations, and most importantly, those nations which position themselves to benefit from it.  This requires funding for even the earliest stages of the process, where the return is going to be highly uncertain. 

The US remains the foremost source of scientific breakthroughs and technological innovations, partly due to our willingness to fund federal basic research and sustain institutions that can productively utilize these funds.  The $140 Billion that the US spends on federal R&D is greater than the nominal total GDP of all but 35 countries.  But are we funding research enough, and in the correct way? 

First, let us take note of federal R&D expenditures as a percentage of GDP (which is the only way to accurately measure it). 

First, it appears that President Clinton trimmed R&D each year he was in office, until R&D fell from 1.2% to just 0.8% of GDP.  The brief budget surplus he took credit for near the end of his term was largely at the expense of R&D expenditures.  Had he maintained R&D expenditures at the same percentage of GDP throughout his Presidency, he would not have achieved a budget surplus.  Now tell me, which outcome would you have rather had?

President Bush increased R&D funding and got it back to historical levels in his first term.  However, his second term has brought another slight downward trend, which I hope is reversed in the next few years.  He is still keeping it higher than it was for most of the Clinton years, however.

Some have argued that funding should gradually become an increasingly larger percentage of GDP, as technological changes continue to affect a greater share of the US economy.  I might agree, but I also feel that since US scientific innovations lead to products and services that benefit every nation in the world, other prosperous nations should also be obligated to fund basic research in their own countries.  Europe and China spend much less than the US, as a percentage of GDP, and it is time they they contributed more to the advancement of human knowledge, rather than simply benefit from US resources. 

As far as which fields of science are being funded and which are not, the next chart provides the answer.  Basic research (the red line in the first chart) is broken out by agency.   

It does appear that President Bush has reduced the funding of NASA, but he has increased NIH funding tremendously.  Even defense has not risen over the past several years, contrary to popular belief.  Energy reseach has risen slowly over the past 30 years, but there has been no major boost to the DoE at any point. 

There you have it - the state of the seeds that lead to fruits we reap years and even decades hence.  Is it enough?  How do we measure which agency uses a dollar better relative to others?  Should we be spending this much when other countries spend much less, and simply wait for our breakthroughs?  Can more be done with the same amount of funding dollars?

New Astronomy Images, and Evidence of Telescopic Advances

I happened to come across this post, which displays the author's selections of the top astronomical photographs of 2006.  The one I am particularly stunned by is #5, the transit of the Space Shuttle and International Space Station in front of the Sun.  The precise timing needed to execute this image mind boggling, and probably less than one in a million.  The photographer, Thierry Legault, had to 1) know when the shuttle was approaching the ISS, 2) know when both of them would be in front of the sun relative to his location in France, which was a zone of observation only 7.4km wide, and 3) get this image in the 0.6 seconds of the transit duration.

Not all of these ten photographs are exclusively the result of instruments and technologies that did not exist a few years ago, but 3 to 4 of them are.  As we have discussed before, telescopic power is also an accelerating technology, and increasingly impressive images will continue to emerge as new telescopes and supporting resources become operational. 

Little can match an astronomical discovery's ability to generate wonder, optimism, and just a general good mood.  We shall see, within just the next couple decades, images that even the late Carl Sagan would have been in awe of. 

2006 Technology Breakthrough Roundup

The MIT Technology Review has compiled a convenient list of the most significant technological advances of 2006.

The Year in Information Technology

The Year in Energy : Plug-in cars, batteries, solar energy.

The Year in Biotechnology : A cure for blindness, and more.

The Year in Nanotechnology : Displays, sensors, and nanotube computers.

Most of the innovations in the articles above are in the laboratory phase, which means that about half will never progress enough to make it to market, and those that do will take 5 to 15 years to directly affect the lives of average people (remember that the laboratory-to-market transition period itself continues to shorten in most fields).  But each one of these breakthroughs has world-changing potential, and that there are so many fields advancing simultaneously guarantees a massive new wave of improvement to human lives. 

This scorching pace of innovation is entirely predictable, however.  To internalize the true rate of technological progress, one merely needs to appreciate :

The Milli, Micro, Nano, Pico curves

The Impact of Computing

The Accelerating Rate of Change

We are fortunate to live in an age when a single calendar year will invariably yield multiple technological breakthroughs, the details of which are easily accessible to laypeople.  In the 18th century, entire decades would pass without any observable technological improvements, and people knew that their children would experience a lifestyle identical to their own.  Today, we know with certainty that our lives in 2007 will have slight but distinct and numerous improvements in technological usage over 2006. 

Into the Future we continue, where 2007 awaits..

The Tesla Roadster - A Glimmer of Energy Hope

Why would a car company want to operate out of Silicon Valley?  For starters, consider that about 20% of a car's value is now comprised of electronic components, and this could reach 40% by 2015 - in true compliance with The Impact of Computing.  This is already greater than the dollar value of steel or rubber in the typical car, and signifies the gradual shift of yet another technology into an information technology.

Silicon Valley's first car company, Tesla Motors, was founded in 2003.  Their first product, the Tesla Roadster, was unveiled in July 2006, and is a fully electric $100,000 car that can accelerate from 0 to 60 mph in just 4 seconds.  The cost of the electricity consumed is estimated to be as little as 1 cent per mile.  Pre-ordered units will be delivered to customers in early 2008.   

However, the initial Tesla Roadster is merely a symbolic product exercise for Tesla Motors.  The real market-shaker is the subsequent 'White Star', a 4-door family sedan using the same electrical technology that could be released as early as 2009.  It is expected to be priced at $50,000 to $70,000, and compete with BMW, Lexus, and Mercedes sedans.  It is possible that by 2012-13, a 4-door sedan that reaches middle-class pricepoints could be available in substantial quantities, along with Tesla's service support infrastructure to go with it. 

The benefits of a fully electric car that consumes just 1 cent of energy per mile are numerous, of course.  From a decline in the quantity of oil imported from the Persian Gulf, to an increase in the purchasing power of the average American, to a contraction of the US Trade Deficit, to a reduction of atmospheric pollutants, there are many benefits to our society if this technology can scale into replacing a significant slice of US automobile sales by 2015. 

Tesla Motors has a blog with a lot of good information as well, including the rate at which they expect cost efficiencies to manifest themselves. 

Whether Tesla Motors succeeds in its long-term vision remains to be seen, but they have done well enough so far to merit watching closely. 

Update (3/15/07) : Tesla is opening 5 dealerships across the United States.  Go see one, if you are in the same areas.

'Outsourcing' - What a Non-Crisis That Turned Out to Be

(Please see Version 2.0, posted on March 18, 2008).

In the 2001-03 economic downturn, the aftermath of the technology bust resulted in hundreds of thousands of software engineers and assorted high-tech workers losing their jobs.  A jittery public was vulnerable to influence from isolationist politicians, with the likes of Lou Dobbs and Pat Buchanan fanning the flames in the media.  As a result, the simple business practice of moving certain components of daily operations to a lower-cost location, if only to keep up with competitors already doing the same, became a dirty word - 'outsourcing'. 

The cover story of Wired Magazine's February 2004 issue was on the outsourcing of software jobs to India.  Within the article, a core theme was the supposedly tremendous hardships that white-collar Americans were about to experience due to a 'giant sucking sound' of jobs going to India.  In the same month, then Presidential candidate John Kerry screamed about the practicies of "Benedict Arnold CEOs" who outsource American jobs to India, hoping to gain the support of isolationists and the economically ignorant.  Elsewhere, very uncharitable things were said by leftists about brown-skinned Indians, due to their rapid adoption of capitalism and globalization at the expense of the leftist plantation where Indians were required to symbolize Gandhian non-violence, zen spirituality, yoga, curries, and the glorification of poverty. 

Let's call February 2004 as time when fears of 'outsourcing' reached a fevered peak. 

A quick glance at a few economic indicators from the Bureau of Labor Statistics since then reveals the following :

So 5.4 million jobs were created in this short time, the unemployment rate is lower than it has been for 32 of the last 35 years, and wages have risen while real GDP has grown at a 3.5% clip.  That has been the extent of the damage to the US economy.  Take that, Lou Dobbs, Pat Buchanan, John Kerry, Dennis Kucinich, and other assorted demagogues, who have no ability whatsoever to truly grasp the trends that shape our world. 

India, in the meantime, has benefited greatly as well.  GDP growth has averaged 8% a year over this same period, and political ties with the US have strengthened in a manner unlike any previous period in the last 50 years, as evidenced by the groundbreaking US-India nuclear deal, something that seemed unthinkable even as recently as 1998.  The faster these ties broaden, the better the world will become.  A prosperous India is a critical component to the US achieving favorable outcomes in both the War on Terror and with China, as seen from where India resides on this particular map.  Anti-Americans become apoplectic when they learn that India is the most pro-US country in the world. 

What does the future of outsourcing hold?  Is there still a risk of jobs vanishing from the US at a rate faster than they can be produced, as pessimists still maintain?  Unlikely, even though Internet backbone bandwidth has quadrupled in the last 3 years, and many more people in India have PCs and Broadband connections today than in 2003.  This is because aggregate demand growth has saturated even India's vast labor pool.  Salaries in India have been rising at over 12% a year due to labor shortages, causing their cost advantage to erode.  India itself has started outsourcing to Bangladesh and Eastern Europe, which are much smaller labor pools and will also saturate quickly.  If anything, the trends favor more job creation in America and India. 

The next time there is a recession, this could emerge as a phony issue again.  But other than a few pessimists, socialists, and racists, it is unlikely to gain much traction, as Americans have seen that the benefits have outweighed the costs by a handsome margin.

Update (4/24/07) : BusinessWeek also has an article on how misrepresented the outsourcing issue is.

nVidia Graphics Technology Advancement

Check out nVidia's homepage for a sample of the graphics that it's new graphics processors are capable of.  Yes, that face is entirely computer generated, and can be rendered on a PC with nVidia's products available for a grand total of under $2000.  While this demonstration, of course, is constructed on optimal conditions to display pre-selected visuals for maximum 'Ooooh' effect, this will be the level of graphical detail that mainstream games will contain by 2012.  Our prediction of a radical reshaping of consumer entertainment appears to be on track. 

An important accomplishment of this demo is the apparent surmounting of the Uncanny Valley pitfall.  More demos are needed to confirm that this obstacle has been overcome, however.

Related :

The Technological Progress of Video Games

The Next Big Thing in Entertainment

Next Generation Graphics, a Good Intro

Cisco's HD Video Conferencing System - A Predicted Innovation

On August 22, 2006, I wrote an article titled Terrorism, Oil, Globalization, and the Impact of Computing.  The article described how four seemingly unrelated forces had emerged in the last few years to create a quadruple inflection point that unleashed massive new market dynamics.  Take a moment to go back and read that article. 

Just 3 weeks later, Google responded exactly to the market needs described in the article by adding immersive travel content into Google Earth, enabling users to have a moderately immersive experience of any location in the world, from the comfort of their own homes. 

But the first article also described another segment of this market :

While the life blood of business is the firm handshake, face-to-face meeting, and slick presentation, the quadruple inflection point above might just permanently elevate the bar that determines which meetings warrant the risks, costs, and hassle of business travel when there are technologies that can enable many of the same interactions.  While these technologies are only poor substitutes now, improved display quality, bandwidth, and software capabilities will greatly increase their utility.

And sure enough, on October 23, or just 2 months after the original article here on The Futurist, Cisco has announced their 'TelePresence' HD video conferencing system, which is a huge advancement over contemporary videoconference technologies.  It consists of three HD screens where conference participants are displayed in life-sized images. 

While the optimal experience requires both parties to have the system, limiting the opportunities for it's use in the near future, as more corporations adopt the system, using it becomes a routine practice in an increasing number of corporate settings.  Corporations will be able to save a decent portion of time and cost of employee business travel, and redeploy those savings into R&D.  Cisco itself expects to reduce business travel by 20%, saving $100 million per year.  If each of the Fortune Global 500 corporations adopted it, they would save anywhere from $20 to $80 Billion per year. 

The full system with three screens, cameras, and high-speed networking equipment costs $300,000.  However, almost all of the components of the system are full member technologies of the Impact of Computing, and hence the same system is bound to cost under $50,000 by 2011, and perhaps much less.  Cisco expects the market to reach $1 billion in annual revenue by 2011, which would amount to 20,000 units per year.  Eventually, prices for a single screen version (currently $80,000) might reach just $2000 by 2015, making them common household items, allowing more people to work from home and untethering them from living in expensive geographies against their preference. 

Two substantial innovations from Google and Cisco have emerged in just two months since the original article.  It is fascinating to watch the modern innovation economy adapt so rapidly to a new market need.  There will be much more to marvel over in the coming months and years.

Update (2/20/07) : A slideshow from BusinessWeek has more pictures.

The Lighting Revolution - An Update

On September 5, we had an article titled The Imminent Revolution in Lighting, and Why it is More Important Than You Think, which described the massive change the economics of lighting will experience in the next few years. 

I would like to also add this article from MIT Technology Review, about advances in silicon-based white-light LEDs.  The article explains how the low cost of silicon, combined with the massive infrastructure already in place to process silicon into electronic and solar-cell products, provides a catalyst for this innovation to reach mass-market adoption sooner than others.  These LEDs could potentially use just one tenth the electricity of traditional incandescent bulbs, yet last 50 times longer. 

The point that many miss, however, is not whether this technology supplants compact fluorescent bulbs (CFLs), or whether another form of LED technology wins out.  The point is that there is rapid innovation in many unrelated technologies trying to address the same goal.  This much competition and participation inevitably leads to high-impact innovations that benefit society immensely. 

As stated before, the energy problem will be killed by a thousand cuts, of which this is one. 

Telescope Power - Yet Another Accelerating Technology

Earlier, we had an article about how our advancing capability to observe the universe would soon enable the detection of Earth-like planets in distant star systems.  Today, I present a complementary article, in which we will examine the progression in telescopic power, why the rate of improvement is so much faster than it was just a few decades ago, and why amazing astronomical discoveries will be made much sooner than the public is prepared for. 

The first telescope used for astronomical purposes was built by Galileo Galilei in 1609, after which he discovered the 4 large moons of Jupiter.  The rings of Saturn were discovered by Christaan Huygens in 1655, with a telescope more powerful than Galileo's.  Consider that the planet Uranus was not detected until 1781, and similar-sized Neptune was not until 1846.  Pluto was not observed until 1930.  That these discoveries were decades apart indicates what the rate of progress was in the 17th, 18th, 19th, and early 20th centuries. 

The first extrasolar planet was not detected until 1995, but since then, hundreds more with varying characteristics have been found.  In fact, some of the extrasolar planets detected are even the same size as Neptune.  So while an object of Neptune's size in our own solar system (4 light-hours away) could remain undetected from Earth until 1846, we are now finding comparable bodies in star systems 100 light years away.  This wonderful, if slightly outdated chart provides details of extrasolar planet discoveries. 

The same goes for observing stars themselves.  Many would be surprised to know that humanity had never observed a star (other than the sun) as a disc rather than a mere point of light, until the Hubble Space Telescope imaged Betelgeuse in the mid 1990s.  Since then, several other stars have been resolved into discs, with details of their surfaces now apparent.

So is there a way to string these historical examples into a trend that projects the future of what telescopes will be able to observe?  The extrasolar planet chart above seems to suggest that in some cases, the next 5 years will have a 10x improvement in this particular capacity - a rate comparable to Moore's Law.  But is this just a coincidence or is there some genuine influence exerted on modern telescopes by the Impact of Computing? 

Many advanced telescopes, both orbital and ground-based, are in the works as we speak.  Among them are the Kepler Space Observatory, the James Webb Space Telescope, and the Giant Magellan Telescope, which all will greatly exceed the power of current instruments.  Slightly further in the future is the Overwhelmingly Large Telescope (OWL).  The OWL will have the ability to see celestial objects that are 1000 times as dim as what the Hubble Space Telescope (HST) can observe, and 5 trillion times as faint as what the naked eye can see.  The HST launched in 1990, and the OWL is destined for completion around 2020 (for the moment, we shall ignore the fact that the OWL actually costs less than the HST).  This improvement factor of 1000 over 30 years can be crudely annualized into a 26% compound growth rate.  This is much slower than the rate suggested in the extrasolar planet chart, however, indicating that the rate of improvement in one aspect of astronomical observation does not automatically scale to others.  Still, approximately 26% a year is hugely faster than progress was when it took 65 years after the discovery of Uranus to find Neptune, a body with half the brightness.  65 years for a doubling is a little over 1% a year improvement between 1781 and 1846.  We have gone from having one major discovery per century to having multiple new discoveries per decade - that is quite an accelerating curve. 

We can thus predict with considerable confidence that the first Earth-like planet will make headlines in 2010 or 2011, and by 2023, we will have discovered thousands of such planets.  This means that by 2025, a very important question will receive considerable fuel on at least one side of the debate...

Google Earth Adding Immersive Travel Content

On August 22, 2006, I wrote an article titled 'Terrorism, Oil, Globalization, and the Impact of Computing', in which I illustrate how four factors are converging to cause radical change in the nature of business travel and tourism.  One paragraph in particular was :

Google Earth and WikiMapia are very limited substitutes for traveling in person to a vacation locale.  However, as these technologies continue to layer more detail onto the simulated Earth, combined with millions of attached photos, movies, and blogs inserted by readers into associated locations, a whole new dimension of tourism emerges. 

Sure enough, today we learn that Google Earth is adding significantly more travelogue content into its application, which can even include individual blogs and video clips.  Users will continuously be contributing new content in a Wikipedia-like manner, as Google Earth and WikiMapia continually force mutual enhancement.  Suddenly, the extent that you can experience a remote, exotic, or dangerous location has just increased substantially.  It still does not replace being there, of course, but this is free of cost and of the hassles of going to an airport, flying, taking taxis, worrying about political correctness compromising airport security, etc.

Go on, and check out a place you are never likely to visit in person.  Then tell us how it felt and if it was more fun than you initially expected.