December 9, 2013
aftermath had not already set the stage. ..Yet what's really scary in "Contagion" is how fast once-humming airports and offices, homes and cities empty out when push comes to shove comes to panic in the streets." -New York Times review of 'Contagion'
Tech Horror Film or American Renaissance?
As if Hollywood biothrillers were not enough, in recent years we've witnessed our government's uneven management of natural and unnatural disasters, from 9/11 to Katrina to a publicly botched roll-out of a government website. On the global stage we watch helplessly as the international community struggles with the basic needs of hurricane victims in the Philippines or refugees of an endless civil war in Syria. As we peer into the future, we have every reason to feel queasy about the profound impact of the second technological revolution bearing down upon us.
The non-Hollywood version is that synthetic biology is both the most promising potential emerging technology and the most dangerous. At its simplest, synthetic biotech involves harnessing cellular and biomolecular processes hugely enhanced by the convergence with a wide range of other technologies -- ICT, gene sequencing, and 3D printing -- to develop new previously unimaginable capabilities. 3D bioprinting of organs or meat for food are just a few of the possibilities. In a global pandemic, synthetic biology would speed the time needed to develop a vaccine and could send the digitized vaccine sequence to be bioprinted for immediate use. However, the ease associated with synthetic biology, including the low cost and wide availability of materials and capabilities, is a source of profound danger. With synthetic biology, we have the ability to alter viruses to become deadlier or to create wholly new lethal microorganisms by accident or intentionally.
The latest craze, 3D printing, has not only reached a takeoff point in transforming US manufacturing and disrupting global supply chains, but could accelerate economic development in places such as Africa that do not have significant manufacturing capability and rely on massive imports. However, there are very problematic security downsides such as 3D printing of guns and improvised explosive devices that will make control of lethal arms more difficult.
Developers are extending the capabilities of robots, crossing the boundary between industrial and non-industrial. The problem is that robots -- including digital ones -- could replace too many workers before new jobs can be created, exacerbating wealth and income gaps. A growing backlash against new technologies, and the loss of low-end jobs, could create an increasingly divided country between the technological "haves" and "have-nots."
Drone technology is increasingly cheap and globally available. Not only can a 9-year-old buy a drone at the local toy store, but nonstate actors can build a drone in a garage to carry out lethal attacks and surveillance. Robotic weapons systems with the ability to autonomously make "kill decisions" are possible and could extend to robotic soldiers.
Additionally, the payoff for the United States from the shale energy revolution has already been significant. Since 2008, the United States has gone from an importer to possibly the world's largest producer of hydrocarbons. Strategically, the United States will soon be in a position to challenge Organization of the Petroleum Exporting Countries (OPEC) control of oil markets and bolster the US position with its Asian partners--Japan, South Korea, and Taiwan--who are major gas importers. Legitimate concerns over methane leaks, water pollution, and minor earthquakes are still being examined. If not addressed quickly by energy firms and regulation, this risk factor could undermine the Shale revolution and with it, major US security interests.
The time for a national conversation is long overdue. In the short term, a few solutions should be considered:
- A bipartisan national commission should be established, comprised of scientists and engineers, energy companies, state regulators, and environmental groups that would forge proposals for minimizing risks and harmonizing regulations.
- The construction of a smart grid should be a national priority. A post-hydrocarbon world will require enormous changes in not only the sources of electricity, but the way it is used and distributed. The modernization of the US electricity grid, much of which is nearly a century old, into a smart grid is a critical part of the transformation. While the payoff would be big -- up to $2 trillion in benefits -- utilities would need to invest between $17-24 billion annually over the next two decades.
- Finally, the most obvious and most expensive: US government R&D funding should be significantly increased to maintain US leadership in science and technology and to strengthen its foundation for economic competitiveness and growth, as well as to marshal science and technology to address global challenges. The United States remains a leader in expenditure on R&D both in absolute terms and as a percentage of GDP, but the share of government spending on basic R&D -- which has been critical to US commercial successes like the iPhone -- has flatlined since about 2003.
The technological revolution is exciting and bursting with opportunity. But, just like the bio-virus in Contagion, a happy ending requires decisive leadership and close coordination between government, science, business, and civil society.
Mathew J. Burrows, a former counselor at the National Intelligence Council, is director of Atlantic Council's Strategic Foresight Initiative and author of the Atlantic Council report Envisioning 2030: US Strategy for the Coming Technology Revolution.