Let’s take a journey back in time to about 120 years ago when American factories started using electricity, sparking the second industrial revolution. Surprisingly, it took about 30 years for productivity to increase in these factories. Why? The first generation of managers simply swapped steam engines for electric motors without rethinking the factory layout to leverage electricity’s potential. It was the next generation that innovated new work processes, leading to a significant boost in productivity, often doubling or tripling output.
Electricity is an example of a “general-purpose technology,” similar to the steam engine. These technologies drive economic growth by enabling a host of complementary innovations, like light bulbs and redesigned factories. Today, our era’s general-purpose technology is the computer. However, technology alone doesn’t determine our future. We must reshape our organizations and economic systems to harness its full potential.
Currently, productivity is high, but it has become disconnected from job creation, leading to stagnant incomes for many workers. This isn’t a sign that innovation is ending; rather, it’s a symptom of what Erik Brynjolfsson and Andrew McAfee call the “new machine age.” Let’s explore some data: the GDP per person in America shows steady growth, and productivity has surged, especially after the initial lag during the second industrial revolution. Despite the Great Recession, productivity in the 2000s grew faster than in the 1990s, and this trend is even more pronounced globally.
The new machine age is characterized by digital, exponential, and combinatorial growth. Digital goods can be replicated at nearly zero cost and delivered instantly, ushering in an era of abundance. Moreover, the digitization of the world enhances our ability to measure and understand it through big data. Exponential growth is evident in how rapidly computers improve; for instance, a child’s PlayStation today surpasses the power of a 1996 military supercomputer. Lastly, the combinatorial nature of innovation means each new idea builds on previous ones, creating endless possibilities.
We’re witnessing astonishing breakthroughs, such as robots performing factory work and machine learning advancements like IBM’s Watson. Initially, Watson struggled on the quiz show Jeopardy, but it quickly improved and eventually defeated the world champion. Watson is now being tested for various jobs, including in call centers and the legal, banking, and medical fields. Despite these advancements, some argue that innovation is stagnating, but like previous industrial revolutions, the full impact of the new machine age will unfold over a century.
While productivity is at an all-time high, fewer people have jobs, and many Americans have seen their incomes decline. This “great decoupling” of productivity from employment and wealth from work has left many disillusioned. Technology is advancing rapidly, but it’s leaving many behind. Routine jobs can now be codified into machine-readable instructions and replicated endlessly. For example, tax preparation software like TurboTax has replaced many human tax preparers, offering faster, cheaper, and more accurate services.
To create shared prosperity, we shouldn’t slow down technology. Instead, we must learn to race with the machine. This challenge is exemplified by the story of Garry Kasparov, who lost to a supercomputer in chess. However, in a freestyle tournament where humans and computers teamed up, the winning team had no grandmaster or supercomputer but excelled through superior teamwork. This demonstrates that collaboration between humans and machines can outperform either working alone.
In conclusion, technology is not destiny; we have the power to shape our future. By embracing the new machine age and working alongside machines, we can unlock unprecedented growth and innovation.
Research and present a case study on how the introduction of electricity transformed a specific industry. Focus on the changes in work processes and productivity. Compare these historical changes to the current impact of computers and digital technologies in a similar industry.
Participate in a structured debate on the topic: “Automation and AI will lead to more job creation than job loss.” Prepare arguments for both sides, considering historical precedents and current trends in the new machine age.
Engage in a workshop where you team up with peers to brainstorm and design a new product or service that leverages digital, exponential, and combinatorial growth. Present your ideas and discuss how they could transform an industry.
Conduct a data analysis project using big data tools to explore trends in productivity and employment over the past two decades. Identify patterns and propose strategies for aligning productivity growth with job creation.
Participate in a challenge where you collaborate with AI tools to solve a complex problem. Reflect on the experience and discuss how human-machine collaboration can be optimized in various fields.
Here’s a sanitized version of the transcript, removing any inappropriate language and ensuring clarity:
—
[Music]
Growth is not dead. Let’s start the story 120 years ago when American factories began to electrify their operations, igniting the second industrial revolution. The amazing thing is that productivity did not increase in those factories for 30 years. That’s long enough for a generation of managers to retire. The first wave of managers simply replaced their steam engines with electric motors but didn’t redesign the factories to take advantage of electricity’s flexibility. It fell to the next generation to invent new work processes, and then productivity soared, often doubling or even tripling in those factories.
Electricity is an example of a general-purpose technology, like the steam engine before it. General-purpose technologies drive most economic growth because they unleash cascades of complementary innovations, like light bulbs and factory redesign. Is there a general-purpose technology of our era? It’s the computer. But technology alone is not enough; technology is not destiny. We shape our destiny, and just as the earlier generation of managers needed to redesign their factories, we’re going to need to reinvent our organizations and even our whole economic system.
We’re not doing as well at that job as we should be. Productivity is actually doing all right, but it has become decoupled from jobs, and the income of the typical worker is stagnating. These troubles are sometimes misdiagnosed as the end of innovation, but they are actually the growing pains of what Andrew McAfee and I call the new machine age.
Let’s look at some data. Here’s GDP per person in America. There are some bumps along the way, but the big story is that you could practically fit a ruler to it. This is a log scale, so it looks like steady growth is actually an acceleration in real terms. And here’s productivity. You can see a little bit of a slowdown there in the mid-70s, but it matches up pretty well with the second industrial revolution when factories were learning how to electrify their operations. After a lag, productivity accelerated again.
So maybe history doesn’t repeat itself, but sometimes it rhymes. Today, productivity is at an all-time high, and despite the great recession, it grew faster in the 2000s than it did in the 1990s—the roaring 1990s—and that was faster than the 70s or 80s. It’s growing faster than it did during the second industrial revolution. And that’s just the United States; the global news is even better. Worldwide incomes have grown at a faster rate in the past decade than ever in history.
If anything, all these numbers actually understate our progress because the new machine age is more about knowledge creation than just physical production. It’s mind, not matter; brain, not brawn; ideas, not things. That creates a problem for standard metrics because we’re getting more and more stuff for free, like Wikipedia, Google, Skype, and even this TED Talk.
Now, getting stuff for free is a good thing, right? Sure, of course it is, but that’s not how economists measure GDP. Zero price means zero weight in the GDP statistics. According to the numbers, the music industry is half the size that it was 10 years ago, but I’m listening to more and better music than ever. I bet you are too. In total, my research estimates that the GDP numbers miss over $300 billion per year in free goods and services on the internet.
Now let’s look to the future. There are some super smart people who argue that we’ve reached the end of growth, but to understand the future of growth, we need to make predictions about the underlying drivers of growth. I’m optimistic because the new machine age is digital, exponential, and combinatorial. When goods are digital, they can be replicated with perfect quality at nearly zero cost, and they can be delivered almost instantaneously. Welcome to the economics of abundance.
But there’s a subtler benefit to the digitization of the world: measurement is the lifeblood of science, and in the age of big data, we can measure the world in ways we never could before. Secondly, the new machine age is exponential. Computers get better faster than anything else. A child’s PlayStation today is more powerful than a military supercomputer from 1996. But our brains are wired for a linear world; as a result, exponential trends take us by surprise.
I used to teach my students that there are some things computers just aren’t good at, like driving a car through traffic. That’s right. Here’s Andy and me grinning because we just rode down Route 101 in a driverless car. Thirdly, the new machine age is combinatorial. The stagnationist view is that ideas get used up like low-hanging fruit, but the reality is that each innovation creates building blocks for even more innovations.
Here’s an example: in just a matter of a few weeks, an undergraduate student of mine built an app that ultimately reached 1.3 million users. He was able to do that so easily because he built it on top of Facebook, and Facebook was built on top of the web, and that was built on top of the internet, and so on and so forth.
Now, individually, digital, exponential, and combinatorial would each be game changers. Put them together, and we’re seeing a wave of astonishing breakthroughs, like robots that do factory work or run as fast as a cheetah or leap tall buildings in a single bound. You know, robots are even revolutionizing transportation.
But perhaps the most important invention is machine learning. Consider one project: IBM’s Watson. Those little dots represent all the champions on the quiz show Jeopardy. At first, Watson wasn’t very good, but it improved at a rate faster than any human could. Shortly after, Watson beat the world Jeopardy champion. At age seven, Watson is still kind of in its childhood. Recently, its teachers let it surf the internet unsupervised, and the next day it started answering questions inappropriately.
But you know, Watson is growing up fast. It’s being tested for jobs in call centers and is getting them. It’s applying for legal, banking, and medical jobs and getting some of them. Isn’t it ironic that at the very moment we are building intelligent machines—perhaps the most important invention in human history—some people are arguing that innovation is stagnating? Like the first two industrial revolutions, the full implications of the new machine age are going to take at least a century to fully play out, but they are staggering.
So does that mean we have nothing to worry about? No. Technology is not destiny. Productivity is at an all-time high, but fewer people now have jobs. We have created more wealth in the past decade than ever, but for a majority of Americans, their income has fallen. This is the great decoupling of productivity from employment, of wealth from work.
It’s not surprising that millions of people have become disillusioned by the great decoupling, but like too many others, they misunderstand its basic causes. Technology is racing ahead, but it’s leaving more and more people behind. Today, we can take a routine job, codify it in a set of machine-readable instructions, and then replicate it a million times.
I recently overheard a conversation that epitomizes these new economics. One person said, “I don’t use H&R Block anymore; TurboTax does everything that my tax preparer did, but it’s faster, cheaper, and more accurate.” How can a skilled worker compete with a piece of software?
Today, millions of Americans do have faster, cheaper, more accurate tax preparation, and the founders of Intuit have done very well for themselves, but 17% of tax preparers no longer have jobs. That is a microcosm of what’s happening not just in software and services, but in media and music, in finance and manufacturing, in retailing and trade—in short, in every industry. People are racing against the machine, and many of them are losing that race.
What can we do to create shared prosperity? The answer is not to try to slow down technology. Instead of racing against the machine, we need to learn to race with the machine. That is our grand challenge.
The new machine age can be dated to a day 15 years ago when Garry Kasparov, the world chess champion, played Deep Blue, a supercomputer. The machine won that day, and today a chess program running on a cell phone can beat a human grandmaster. It got so bad that when he was asked what strategy he would use against a computer, Jan Donner, the Dutch grandmaster, replied, “I’d bring a hammer.”
But today, a computer is no longer the world chess champion, and neither is a human. Because Kasparov organized a freestyle tournament where teams of humans and computers could work together, the winning team had no grandmaster and no supercomputer. What they had was better teamwork, and they showed that a team of humans and computers working together could beat any computer or any human working alone.
Racing with the machine beats racing against the machine. Technology is not destiny; we shape our destiny. Thank you.
[Music]
—
This version maintains the core ideas while ensuring clarity and appropriateness.
Growth – The increase in the amount of goods and services produced by an economy over time. – The country’s economic growth was driven by advancements in technology and increased productivity.
Technology – The application of scientific knowledge for practical purposes, especially in industry. – The rapid development of technology has significantly transformed the manufacturing sector.
Productivity – The efficiency with which goods and services are produced, often measured as output per unit of input. – Enhancing worker productivity through training and better tools can lead to higher economic output.
Innovation – The process of translating an idea or invention into a good or service that creates value or for which customers will pay. – Innovation in renewable energy technologies is crucial for sustainable economic development.
Machines – Devices that use energy to perform an activity or task, often replacing human labor. – The introduction of automated machines in factories has increased production efficiency but also raised concerns about employment.
Digital – Involving or relating to the use of computer technology and the internet. – The digital economy is characterized by the widespread use of digital technologies in business operations.
Data – Facts and statistics collected together for reference or analysis, often used to inform decision-making in economics and business. – Companies leverage big data to gain insights into consumer behavior and improve their marketing strategies.
Employment – The condition of having paid work or the number of people who have jobs within an economy. – Technological advancements can lead to shifts in employment patterns, requiring workers to adapt to new roles.
Economy – The system of production, distribution, and consumption of goods and services within a society or geographic area. – A stable economy is essential for attracting foreign investment and fostering innovation.
Learning – The acquisition of knowledge or skills through study, experience, or teaching, often contributing to economic development. – Continuous learning and skill development are crucial for maintaining competitiveness in a rapidly changing job market.