Irving Wladawsky-Berger

The Impact of AI on Research and Innovation

On December 29, the WSJ  published “Will AI Help or Hurt Workers?,” an article based on a research paper by Aidan Toner-Rodgers, a second year PhD student in MIT’s Economics Department.

One of the reasons the WSJ article caught my attention is that it featured a photo of the MIT graduate student in between two of the world’s top economists whose research I’ve closely followed for years: Daron Acemoglu, — who in October was named a co-receipient of the 2024 Nobel Memorial Prize in Economic Science, and David Autor (along with his dog Shelby) — who was a co-chair of a multi-year, MIT-wide Taskforce on the impact of AI on “The Work of the Future.”

Both professors raved about Toner-Rodger’s research even though they have somewhat different points of view on the impact of AI on workers. Professor Autor is more optimistic, arguing that “AI Could Actually Help Rebuild The Middle Class.” His friend and colleague, professor Acemoglu, worries that AI could actually worsen income inequality and not do all that much for productivity and GDP growth over the coming decade. “For all the talk about artificial intelligence upending the world, its economic effects remain uncertain,” he said in a recent interview. “There is massive investment in AI but little clarity about what it will produce.” But they both agreed that “the research by Toner-Rodgers, 26 years old, is a step toward figuring out what AI might do to the workforce, by examining AI’s effect in the real world.”

Leveraging GenAI for Workforce Productivity: a Scenario Based Analysis

“Generative artificial intelligence (GenAI) has the potential to drive significant improvements in workforce productivity at the level of tasks, organizations and economies,” said a recent report “Leveraging Generative AI for Job Augmentation and Workforce Productivity: Scenarios, Case Studies and a Framework for Action,” by the World Economic Forum in collaboration with PwC. “Delivering those gains depends, among other things, on the deployment of GenAI to augment jobs, i.e. to partially perform tasks in such a way that technology effectively supports or enhances human capabilities through human-machine collaboration.”

“With such a fast-moving technology, it is hard to predict how even the relatively near-term future will play out,” the report added. “To help think through the possibilities, it is useful to think in terms of scenarios.” When the present resembles the past, we can calculate the probability of future outcomes by analyzing past historical data. But, the situation is very different when trying to formulate strategy in the face of high uncertainty because when situations lack analogies to the past, we have trouble envisioning how the future will play out.

The object of scenario planning is to assemble all known facts, trends, and other information and use them to create a number of alternative stories rich in detail, typically three or four, about plausible future outcomes. Military strategists first developed scenario planning in the 1950s to help them envision the impact of a nuclear war between the US and the Soviet Union, - something that was clearly way beyond anyone’s experience.

Scenario planning has continued to be used by military and government policy strategists. For example, every four years since 1997, the US National Intelligence Council has been publishing a Global Trends report outlining the key trends that will shape the world over the following twenty years. The reports illustrate how the future might play out by developing different scenarios, typically three or four, each embodying the key issues, trends, decisions and uncertainties that will shape the global landscape twenty years into the future.

In the business world, scenario planning has become a valuable tool for strategic thinking over the mid- to long-term planning horizon. Alternative technology, market and political environments can be described in a few discrete scenarios while organizing the richness and range of possibilities into plausible future outcomes.

How Humans and AI Can Complement Each Other in the Workplace

General purpose technologies (GPTs) are the defining technologies of their times. They are engines for growth that can radically transform the economic environment. “Early versions of GPTs often look very different from their mature forms,” wrote MIT’s Isabella Loaiza and Roberto Rigobon in “The EPOCH of AI: Human-Machine Complementarities at Work.” “Only after waves of adjustments and extensive collective tinkering do these technologies evolve into foundational parts of society — and even after long periods of refinement, they continue to evolve.”  

“The process of continuous refinement not only enhances the technology but also uncovers new applications, setting the stage for a myriad of new products, services, and even new GPTs. As a result, these technologies hold the power to create and reshape entire markets while rendering others obsolete, driving profound societal shifts and large-scale resource reallocation. While transformative, long-lasting change is a defining feature of GPTs, the specific direction of that change is likely shaped by the political, social, economic, and institutional structures in place when the technology emerges.”

The Future of Self-Driving Cars and Robotaxis

MIT professor emeritus Rodney Brooks has been posting an annual Predictions Scorecard  in rodneybrooks.com since January 1, 2018, where he predicts future milestones in three technology areas: AI and robotics, self driving cars, and human space travel. He also reviews the actual progress in each of these areas to see how his past predictions have held up. On January 1 he posted his 2025 Predictions Scorecard.

Two weeks ago I discussed Brooks’ predictions on “The Future of AI and Robotics.” I now want to discuss his predictions on The Future of Self-driving Cars and Robotaxis.

Fully autonomous vehicle (AVs) may well be the quintessential symbol of our AI/robotics age. Cars are a major part of our daily lives. Unlike other AI and robotics applications, a self-driven vehicle is a concept that requires little explanation, — something we can all quickly grasp. It wasn’t that long ago that the notion of an AV driving us around while we read or sleep would have felt like the stuff of science fiction. This is no longer the case.

Brooks wrote that “the definition, or common understanding, of what self driving cars really means has changed since my post on predictions seven years ago. At that time self driving cars meant that the cars would drive themselves to wherever they were told to go with no further human control inputs. Now self driving cars means that there is no one in the drivers seat, but there may well be, as is the case in all cases so far deployed, humans monitoring those cars from a remote location, and occasionally sending control inputs to the cars.”