The Decade of Gen X Wish Fulfillment


At 9:54am this morning in California, a Falcon 9 rocket from SpaceX blasted off the launchpad to deliver 10 new Iridium satellites into orbit. 9 minutes later, the jettisoned first stage of that rocket ship self-navigated back down, landing perfectly and without damage. The dream of self-landing, reusable rockets, abandoned 50 years ago, has become a reality.

If you are a science & technology enthusiast, it is an unbelievable time to be alive.

Everywhere you look, there are signs that all of the science-fiction dreams of the 20th century are rapidly coming to life. Boom Aero is ready to bring economically viable supersonic jets (Mach 2.2) to commercial air travel, and several competitors are now racing to bring their own to market. In just a few years years, Tesla has reshaped the global automative industry by executing on their audacious plan to accelerate the transition to clean energy by proving the market-viability of electric cars. Google has not only brought self-driving cars to the tipping point of commercial viability, but it is sparked a global race to bring them to market by the end of this decade.

Uber is talking about flying cars. Amazon is patenting airship warehouses for drone for commercial delivery, and has delivered ambient voice control to our homes. Facebook is bringing us true virtual reality. Apple is delivering the equivalent of a crystal-in-our-ears to connect to the cloud. Moon Express will land on the moon in 2017.


What has changed so dramatically? Why are so many of our collective dreams, many of which predicted over 50 years ago, suddenly tumbling to market in an avalanche of advancement?

I have a simple hypothesis. We are living in a decade of Gen X wish fulfillment.

The Ascendent Economic Power of Gen X

ft_16_04-25_generations2050Poor Gen X. You can’t go ten minutes without seeing some political or economic framing around the political and economic tensions between the Baby Boom generation, the 70 million Americans born between 1946-1965, and the 90 million Millennials, born between 1981-2000. Sure, Gen X got a few TV sitcoms & movies in the 90s, but it was a brief time in the sun before the cultural handoff.

As of 2017, most members of Gen X now range from their late 30s to their early 50s. They have found careers, started families. More importantly, they have hit the economic sweet spot of the US economy. Wealth accumulation is highly correlated with age, and career success is as well. You can see it clearly in the numbers: Gen X is wealth is accelerating rapidly, faster than the Millennial generation, and over a smaller base of people, while Baby Boomers begin their inevitable asset decline as their retire.


The Influence of Gen X Leadership

Like every generation, Gen X has produced a set of exceptional leaders, and many of them are now concentrated in technology, where the industry rewards founders and executives at a younger age than other industries. Larry Page & Sergey Brin at Google. Elon Musk at Tesla & SpaceX. Travis Kalanick at Uber. Jeff Bezos misses the cut off by a matter of months, but clearly fits the profile as well.

Demographers have always projected the window for Gen X would be hard: Baby Boomers are determined to hold on to power as long as possible, and Millennials have the political strength to force transition more quickly on their terms.

Still, we are clearly in a window of time where a fairly large number of Gen X leaders have accumulated significant economic power.

So what are they doing with that power?

Gen X Wish Fulfillment

Five years ago, Peter Thiel lamented that we were promised spaceships and flying cars, but all we got were 140 characters. The sentiment, in various forms, became common place. Why wasn’t Silicon Valley investing in hard problems?

Not surprisingly, it seems as if the peak of that disenchantment actually coincided with an incredible resurgence in investment in deep technology.

Gen X is, in the aggregate, almost canonically described as cynical and disenchanted. But with the ascendence of science fiction into Hollywood in the 1970s, they grew up seeing the future through the lens of technology. The boom in personal computing, followed by the internet, filled their formative years. True, huge initiatives of the 1970s around space and clean energy faltered and almost expired. But while there were disappointments, like the Space Shuttle, they also saw the end of the Cold War, and the phenomenal growth in the technology industry.

Is it really so surprising that a subset of this generation, in this brief window, has decided to invest its economic power into tackling the problems the previous generations failed to deliver?

Electric cars. Clean Energy. Gene Editing. Space Travel. Drones. Artificial Intelligence. Man-made diamonds. Robots.

Even our comic book movies have become phenomenal, mostly thanks to Jon Favreau.

Dreams transformed into reality.

Can Gen X Inspire?

Make no mistake, Gen X stands on the shoulders of giants. The previous generation gave us the economic and technology platforms to make these dreams become reality. Gen X deserves credit for not giving up on those dreams, and finding innovative ways to push through old barriers and find new solutions.

After winning World War II, the Greatest Generation inspired a whole new generation of scientists and engineers with their audacious efforts in technology in the 1950s & 60s. We may be witnessing a similar era, a decade where the technological achievements of this generation ripple through the children of today, and play out in second half of this century.

So many of the technical dreams I discussed eagerly with friends in high school and college are now actively being delivered to market, just twenty years later. It is an incredibly exciting time to be in technology.

Personally, I hope this generation will not only hand off and even better set of opportunities to the next, but we’ll use this brief window of time to inspire an even younger generation to reach for the stars.


Book Review: The 4 Percent Universe

The 4 Percent Universe: Dark Matter, Dark Energy, and the Race to Discover the Rest of Reality

It has been a while since I’ve posted a book review to this blog, but after finishing a couple new books this past weekend, I thought a few readers might be interested in this one.

The 4 Percent Universe is a fairly typical “popular” physics book, namely one of the dozen or so books that gets published every year to try and simplify modern physics for the casual reader.  Originally, I picked this book up based on a Wall Street Journal review that recommended it as an up-to-date assessment of current theory around dark matter and dark energy.

For those of you who haven’t followed the progress on these topics over the past two decades, dark matter is a the common term given to the matter in the universe that we can detect due to gravitational effect, but can’t see based on any traditional form of observation.  Dark matter, as it turns out, does not emit or react to photons, which are the basis of most forms of astronomic observation.  Dark energy is the term given for the incredibly large volume of energy that has been calculated to exist in our universe, but that once again we haven’t been able to measure.  Both are fascinating outcomes of the development of mathematical theories around cosmology that predict facets of our universe that have not yet been measured or observed.  The “4%” in the book title refers to the fact that only about 4% of our universe is actually the traditional forms of matter and energy that most of humanity assumed was “everything” through the 20th century.

What makes this book different than most is the style of writing.  Instead of a chapter-by-chapter introduction and explanation of concepts, the entire book is presented as narrative, literally walking through the individual stories of the researchers and scientists who played different roles in discovering relevant theories and concepts.  As a result, it’s a much deeper look into the politics and competitiveness between scientists and academics of different disciplines (math, physics, astronomy, cosmology), as well as the bare knuckles process of research, peer-review, and all-too-common resistance to data and/or theories that don’t conform to existing cannon.

Personally, I found the first 150 pages or so fairly boring – too far in the past for me to really engage on the play-by-play discoveries that led to an acceptance of cosmology, big bang theory, and inflation.  These are topics that Stephen Hawking covered fairly well in his books.  However, the last half of the book really drew me in, as the narrative really took over in presenting the mounting evidence for dark energy, with explanations of key experiments and theories in the past decade (as recently as 2007/2008).

As a result, I definitely recommend this book to those who fashion themselves “physics hobbyists”, or those who wish to remain up-to-date on modern cosmology.

Lunar Mission: The First Step in Putting the Past Behind Us

Wonderful news today coming out of NASA today:

NASA took the first concrete step toward returning human beings to the moon Thursday, successfully launching the Lunar Reconnaissance Orbiter on a mission to find the best place to build Earth’s first off-world colony.

The 19-story-high, two-stage rocket and spacecraft launched at 2:32 p.m. PDT. As the huge first-stage Atlas V rocket roared to life at Cape Canaveral in central Florida, NASA spokesman George Diller called it “America’s first step in a lasting return to the moon.”

The $500 million orbiter will spend the next year cruising just 31 miles above the lunar surface, employing a suite of seven instruments to identify landing hazards such as rocks and craters. It will be paying particular attention to the largely unknown lunar poles, where previous missions have picked up hints that water ice may exist in some permanently shadowed craters.

Thousands of sky watchers are expected to turn their telescopes to the moon on the morning of Oct. 9, when the water-seeking satellite steers the fuel-depleted second stage Centaur rocket into a crater at 5,600 mph. For those in the western U.S., where the moon will still be up, the plume should be clearly visible with a moderately sized backyard telescope, NASA said.

Time to start putting forty years of the unprecedented embarrassment of the US space program since the late 1970s.  I’m not sure that any other country has so thoroughly trashed such a magnificent technological edge in a crucial field before, unilaterally.

The space shuttle.  The international space station.   Ugh. I think I just threw up in my mouth a little.

Ironically, we may look back and give the Bush Administration surprising credit for finally tilting US space exploration back in the right direction.  (Don’t worry, I’m under no delusion that people will say anything nice about Bush 43 for a while…)

There are tremendous technical and commercial advantages to establishing the first, ongoing presence on the Moon.  It’s a little know fact, but as an independent side project at Harvard, I built out an initial business model and operating plan for financing a private moon base.  It’s hard to think back, but at the time (2000), companies were raising $10B-$15B in private capital markets to fund the build-out of fiber-optic networks across the world.

It wasn’t such a stretch to imagine raising $60B in sequential rounds to fund a moon base, particularly when the economics of a moon base are so strong.

You see, the moon is such a hostile environment, that once you have a self-sustaining and expandable eco-system set up, it’s a natural monopoly.  For quite some time, it will always be significantly cheaper to add on to an existing base, rather than build a new one from scratch.

That difference in cost, which is measured in billions, is an incredibly revenue opportunity, assuming there is demand to establish presence on the moon.

It was 2000, but I believe I laid out at least 10 potential revenue lines for the moon base, to help it become cash flow positive, even across that type of capital raise.

(Yes, I was assuming the US would never ratify the Moon Treaty from the insane 1970s.  Beyond ridiculous.)

In any case, very exciting to see us finally moving down the correct path.  My only regret is that if we had moved down this path in the late 1970s, we’d all be jostling for positions on a fully operational moon base by now.

I’m still optimistic that I will be able to travel to the moon in my lifetime.  The only question now is whether it will be a US or Chinese built lunar city.

US Patent 7,490,056 Has Been Granted

Interesting milestone this week.  My very first patent granted.

USPTO: Patent #7,490,056

  • Filed: November, 2004
  • Granted: February 10, 2009

Ironically, I wouldn’t have known about it except for a promotion catalog I got in the mail today with a list of plaques I could buy to commemorate this patent from some souvenir company in Florida.  Yes, I know.  Weird.

This was the first of several patent applications I submitted while at eBay.  This particular application surrounded the logic and algorithm around assessing popularity for e-commerce listings based on “following” behavior, aka “Watch” in eBay terms.

Yes, this was the “Most Watched” patent, from the debut of eBay Pulse.  (Sadly, it looks like the patent office has actually moved faster approving this patent than eBay has updating eBay Pulse since that 2004 launch.)

There is a lot I could comment on here about the USPTO, the dubious nature of software patents, the length of time, etc.  Normally, I’d go on at length about some of these issues.

Instead, however, I’ll just note that it’s a somewhat sentimental moment for me, because I always remember hearing about how my late grandfather had filed an important patent on his path to business success.

Closing in on Sequencing the Neanderthal Genome

This news is from tomorrow’s New York Times:

Scientists in Germany Draft Neanderthal Genome

It’s about 63% complete at this point.  We live in magical times, scientifically.  Unbelievable.

Some nice tidbits from the article:

The Neanderthal genome, when fully analyzed, is expected to shed light on many critical aspects of human evolution. It will help document two important sets of genetic changes: those that occurred between 5.7 million years ago, when the human line split from the line leading to chimpanzees, and 300,000 years ago, when Neanderthals and the ancestors of modern humans parted ways; and second, the changes in the human line after it diverged from Neanderthals.

An early inference that can be drawn from the new findings, which were announced Thursday in Leipzig, Germany, is that there is no significant trace of Neanderthal genes in modern humans. This confounds the speculation that modern humans could have interbred with Neanderthals, thus benefiting from the genes that adapted the Neanderthals to the cold climate that prevailed in Europe in last ice age, which ended 10,000 years ago. Researchers have not ascertained if human genes entered the Neanderthal population.

Unfortunate for me – I had long been in the camp that speculated that Neanderthals weren’t actually a true species by the definition of inter-breeding.  I had expected that we’d discover some genetic evidence of interbreeding.

We’re in such early days of understanding our genome, it may be hard to appreciate how the advances in information science and genomics will profounding affect our understanding of species, both current & extinct.

I’m going to be on the lookout for more formal academic writings on this research.  A little surprised to see this come out today, instead of Tuesday, which is the official “Science Times” day…

The Latest Large Prime Discovered: 2^43,112,609 – 1

From Science News:

Here’s a number to savor: 243,112,609-1.

Its size is mind-boggling. With nearly 13 million digits, it makes the number of atoms in the known universe seem negligible, a mere 80 digits.

And its form is tidy and lovely: 2n-1.

But its true beauty is far grander: It is a prime number. Indeed, it is the largest prime number ever found.

The Great Internet Mersenne Prime Search, or GIMPS, a computing project that uses volunteers’ computers to hunt for primes, found the prime and just confirmed the discovery. It can now claim a $100,000 prize from the Electronic Frontier Foundation for being the first to find a prime number that has more than 10 million digits.

Don’t worry prime hunters, there are prizes still to be claimed:

The Electronic Frontier Foundation became interested in prime hunting because it makes an excellent challenge problem for cooperative, distributed computing. “The award is an incentive to stretch the computational ability of the Internet,” says Landon Noll of Cisco Systems Inc., one of the judges for the Electronic Frontier Foundation prize and a discoverer of a former biggest known prime. More prizes remain to be claimed: a $150,000 award for a prime with 100 million digits, and a $250,000 award for one with a billion digits.

In case you are wondering why I’m posting this here on my blog, I do have some personal historical trivia that makes the issue of large primes sentimental for me.

The first job I ever had writing software was an unpaid high school internship at NASA Ames Research Center, here in Mountain View.  My project was to build a simulation model to evaluate error rates for different fluid dynamics algorithms.  In order to do the project, which was executed on a Cray X-MP supercomputer, I had to learn Fortran.

The sample project I chose to do to learn the language was a simple program to take as input a Mersenne Prime, and then generate the actual digits for the number in a large output file.

As a side note, this was the first time I also ever became familiar with the operating costs of these type of high end systems… I remember being fairly shocked when the scientist I was working with explained to me that my program had taken several hours of Cray time, which was billed at about $2,000 per hour.

Of course, I’m fairly certain that my new 8-core Mac Pro is significantly faster than those old Cray supercomputers… 🙂