Honorable Mentions of Mobile Computing
Like the devices, I was fond of a few mobile entrepreneurs. I devoured Jerry Kaplan’s book, Startup, on his failed pen computing company. At the time, most observers thought the next big thing would be writing with a stylus on a pocket-sized PC. Kaplan clearly had fun writing his book and giving Microsoft a jab for copying some of his company’s ideas.
Jeff Hawkins (above) was my favorite mobile pioneer. He seemed more like an Iowa farm hand than a Silicon Valley entrepreneur. A lanky, animated guy with a shock of blonde hair, contrarian opinions on everything and a passion for new product concepts, Jeff made for a great and candid interview. He loved few things more than holding forth on his latest idea or gadget. He once described himself as “a product guy…My value is trying to figure out how to get the next thing going.”
Before I met him, Jeff had designed one of the first tablets, the Grid Pad, that had minor commercial success, as well as the Palm Pilot (pictured), the best-selling member of a challenged category of super-organizers like the Palmtop PCs.
In 2003, he debuted an early smartphone, the Treo 600. It looked like an HP
iPAQ handheld computer and had a built-in cellular phone. But arriving on the
heels of the popular Research in Motion Blackberry, the Treo never got much traction.
I interviewed Jeff in 2007 just after the iPhone was announced. He was mainly a big-hearted
guy, but he seemed a bit sour as he poured cold water on Apple’s work and its
outlook. “They’re going to discover it’s really hard to make a great device for
voice,” he said recounting tech challenges he overcame.
Then he launched a rant on the sorry state of the
cellular industry. At the time carriers exerted huge control over mobile
devices and their so-called walled gardens, the limited network services they could
access.
“We can't build the products we want to build, charge
for them what we want and add the services we want. It's just a really broken
system,” he told
me.
“We have all these carriers, each one has their own
idea of what a smartphone should be, what the technical specs should be, and
what e-mail and the Web-browsing experiences should be.
“It's very complex and daunting. We have chip makers like Qualcomm or the GSM guys who control their deals and have their own ideas,” about software for them, and cellular networks came in many different flavors, each requiring detailed engineering work.
“We have to make 20 little teams, one for every carrier. That's an obstacle in general for moving the market forward. It slows
things down so that people can't innovate,” he said.
I loved his candor, but I was also glad when our conversation
wandered off topic and the more upbeat Jeff returned. He said something about
climbing up Half Dome, Yosemite’s iconic peak, with his daughter. I loved the
park and took my kids there several times but never attempted the 12+ hour
hike that ends with a famously rickety wire ladder up the near-vertical rock
face where some climbers start to lose courage. For a few minutes, we were just
two Silicon Valley dudes swapping tales.
About the time folks forgot about the Treo, Jeff returned on the scene talking
about his greatest passion yet—neuroscience.
So far, he's published two books with thoughts about how the neocortex works, insights that, once refined, he
thought would radically change computer design. It was both compelling and a
bit half-baked, but he sold it with a double dose of his usual enthusiasm in
talks and interviews. And it was not just an exercise in theory. Jeff launched
a small research institute to flesh out the concepts and lay the foundations
for brain-like computers.
“I felt that if you understood how the human brain
works you could build machines that work the same way, and they could do things
humans could do, like recognize speech,” he said in a 2005 interview.
He foreshadowed claims Sundar Pinchai, CEO of Google’s
parent company, Alphabet, would make more than a decade later about another
branch of machine learning, deep learning, the technology we now generically
call AI.
“As always in technology, when you come out with a
whole new computing paradigm, it will blossom into a gazillion things people
never thought of before,” Hawkins said. “People who invented the transistor and
microprocessor had no idea what was going to come from it. This [brain theory
algorithm] is going to be bigger than all that stuff, I promise you. It is the
ultimate way of information processing. It's a fundamental capability that has
so many ways of extending what we do as humans that it will be incredible. It
will be right up there with the invention of the digital computer and
electricity. It will transform our lives in a major way.”
I was not the only one enchanted once again by his
boyish energy. Organizers of ISSCC, one of the lead conferences for engineers
who design chips, a group known for its skepticism and technical chops, asked
him to deliver a keynote on his work in 2008.
In the talk, he described algorithms still in development that could greatly
advance work in areas such as computer vision. “I think this is going to have
an enormous impact on semiconductors,” Hawkins said.
In a brief 2013 encounter, I heard how he released
some of his work in the form of open-source software. But as far as I could tell it never got
significant traction.
Jeff was among a small crowd of researchers bent on
the idea of understanding the brain as the door to a new age of computing. But
the proponents of that path made little headway compared to those who simply
experimented with diverse, complex algorithms.


It's very possible Hawkins may be correct, but ahead of his time. His A Thousand Brains book seems interesting for it does to mental models what theories on multiple personality (dis)order has done to being diagnosed/recognized, then less stigmatized or reclassified as neurodivergent.
ReplyDeleteA couple weeks ago I picked up Katie Hafner and Matthew Lyon's "Where Wizards Stay Up Late " 1996) and it hadn't occurred to me that the internet was one of the first neural net inspired networks:
"Baran was working on the problem of how to build communications structures whose
surviving components could continue to function as a cohesive entity after other pieces
were destroyed. He had long talks with Warren McCulloch, an eminent psychiatrist at
MIT’s Research Laboratory of Electronics. They discussed the brain, its neural net
structures, and what happens when some portion is diseased, particularly how brain
functions can sometimes recover by sidestepping a dysfunctional region. “Well, gee, you
know,” Baran remembered thinking, “the brain seems to have some of the properties that
one would need for real stability.” It struck him as significant that brain functions didn’t
rely on a single, unique, dedicated set of cells. This is why damaged cells can be
bypassed as neural nets re-create themselves over new pathways in the brain." P.36
Along with Donald Davies, Baran independently developed packet switching although the latter had made the goal of the network for the military command and control to survive a nuclear strike, whereas the latter and ARPA-E had a general interest in allowing various computer systems from say universities to communicate on a compatible protocol.