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I describe this global system of technology deployed around the planet as an emerging superorganism. It consists of roads, electric lines, telephone cables, buildings, water systems, dams, satellites, ocean buoys and ships, all our computers and data centers, and all 6 billion humans. But while this superorganism of new and old technology operates at the planetary scale, and reaches all continents, and spans the oceans, and reaches into orbital space, it is a thin and uneven layer on the globe. In fact most of the planet, on average, is in a very primitive state.

Let's draw a grid around the globe with lines that form a square approximately every 100 km (at the equator). At every intersection of these grid lines we'll take a picture for inspection. There are about 10,000 intersections over the land part of this planet. They will give us a very good statistical portrait of what this planet looks like on land. Shown are 6,000 images of a possible 10,000 degree intersections on land.

The imaginary grid is the longitude and latitude grid, and somewhat remarkably, over 6,000 of the 10,000 intersections have already been photographed. Intrepid volunteers sign up at a web site called the Degree Confluence that is half art-project, and half adventure storytelling in order to select an intersection somewhere on the globe to visit --no matter how wild -- and record their success with photographs including a legible snapshot of their gps proving a bonafide "even" lat-long reading with lots of zeros.

The genius of modern mass production was the machine's ability to make cheap identical copies of any invention -- unlike the uneven creations of mortal craftsmen.

Hemingway's personal typewriters (he had more than one) are treated like relics. They are roped off, no touching them, they've become the object of pilgrimages, fetching more than $100,000. Yet, the venerated typewriter itself is indistinguishable from other units made on that assembly line.

Relics are common in all the major religions of the world.

In February 1942, R. Bradley,  a British Officer in the Royal artillery in World War II was captured and then held prisoner by Japanese in Singapore. Their camp was remote, supplies were almost non-existent, and they were treated roughly as POWs; when they rebelled they were locked in a confinement shed without food.

• Every new technology will bite back. The more powerful its gifts, the more powerfully it can be abused. Look for its costs. • Technologies improve so fast you should postpone getting anything you need until the last second. Get comfortable with the fact that anything you buy is already obsolete. • Before you can master a device, program or invention, it will be superseded; you will always be a beginner. Get good at it. • Be suspicious of any technology that requires walls. If you can fix it, modify it or hack it yourself, that is a good sign. • The proper response to a stupid technology is to make a better one, just as the proper response to a stupid idea is not to outlaw it but to replace it with a better idea. • Every technology is biased by its embedded defaults: what does it assume? • Nobody has any idea of what a new invention will really be good for. The crucial question is, what happens when everyone has one? • The older the technology, the more likely it will continue to be useful. • Find the minimum amount of technology that will maximize your options.

Many folks in the biotech industry have repeatedly explained why biotech is different, how it is far more complex than digital stuff, requiring far more education to master, how the subject is far more delicate requiring far more precision in experiments, and the equipment thus far more expensive than anything computers use, meaning overall that garage biotech hackers were very unlikely. "You need a PhD and a clean room" they would say.

The influence of exponentially improving biological technologies is only just now starting to be felt. Today writing a gene from scratch within a few weeks costs a few thousand dollars. In five to ten years that amount should pay for much larger constructs, perhaps a brand-new viral or microbial genome. Gene and genome-synthesis projects of this larger scale have already been demonstrated as academic projects. When such activity becomes commercially viable, a synthetic genome could be used to build an organism that produces fuel, or a new plastic, or a vaccine to combat the outbreak of a new infectious disease.

As I will discuss in Chapter 6