A man thinking about a new city

Moving to a new place can inspire new ideas. (pathdoc/Shutterstock)

Relocating To New Cities Helped Scientists Launch Prize-Winning Research Sooner

In a nutshell

  • Scientists who frequently move to new cities or hold positions in multiple locations start their Nobel-winning research significantly earlier, by up to 2.6 years, than those who stay put.
  • Exposure to new environments and diverse intellectual communities helps spark novel combinations of ideas, accelerating the path to scientific breakthroughs.
  • The study challenges the idea that innovation thrives best in long-term clusters, suggesting instead that mobility and cross-pollination may be more powerful drivers of creativity.

COLUMBUS, Ohio — Packing your bags and moving to a new city might significantly boost your chances of doing extraordinary work. A new international study reveals that scientists who relocated to new cities or maintained positions in multiple locations started their Nobel Prize-winning research nearly 2.6 years earlier than their more stationary counterparts.

The study, published in the International Economic Review, examines how exposure to new places and diverse environments leads to unique combinations of ideas that enhance scientific creativity.

“You’re more likely to come up with that great new idea if you move around, meet new people, have new experiences, encounter new ways of thinking,” says study co-author Bruce Weinberg from Ohio State University, in a statement.

Exposure to fresh perspectives and diverse ideas appears to accelerate scientific breakthroughs. This contradicts the traditional concept that innovation occurs primarily when similar experts cluster together long-term.

white person moving
Relocating can introduce you to new perspectives. (Photo by Karolina Grabowska from Pexels)

The research focused on Nobel laureates in chemistry, medicine, and physics from 1901 to 2003. Using detailed biographical information, they traced where each scientist lived throughout their career and identified exactly when they began the work that would eventually earn them a Nobel Prize.

Scientists who switched to new locations every two years commenced their prize-winning work nearly two years earlier than those who stayed put. Meanwhile, those who consistently held positions in multiple locations, perhaps teaching at one university while researching at another institution, started their most impactful work about 2.6 years sooner.

“You can be in one place with lots of brilliant people, but after a while, you’ve talked to all of them and you develop a common understanding of how things work,” says Weinberg. “You’re less likely to come up with this great breakthrough unless you are exposed to a new set of ideas you haven’t heard before. You can do that by moving or working in several locations.”

This remained true even after controlling for variables like field of study, career stage, and the quality of scientific colleagues. In fact, working among other brilliant minds (measured by the number of eventual Nobel laureates in a scientist’s location) also accelerated breakthroughs, though not as dramatically as geographic mobility did.

Young woman or teen brain concept
Scientists who moved were exposed to other intellectual individuals and research communities. (Photo 102762325 | Black Teen Brain © Denisismagilov | Dreamstime.com)

For context, the average scientist in the study took about 10.5 years from the start of their career to begin their Nobel-worthy work. So shaving off 2-3 years represents a substantial acceleration of scientific progress.

The research builds on what’s known as “recombinant innovation,” the idea that truly novel discoveries often come from combining previously unrelated concepts or techniques. Moving to new environments apparently exposes scientists to different approaches, perspectives, and problems they might never have encountered otherwise.

“It’s not easy for a scientist to move their lab and work to a new location, but it can substantially boost their research,” adds Weinberg.

The research specifically investigates two key ways scientists encounter novel idea combinations: first, by relocating to places with entirely new intellectual environments, and second, by maintaining connections across multiple locations, allowing them to transfer ideas between different intellectual communities.

Looking at the timeline data, researchers found fascinating patterns across different scientific disciplines. Physicists in the early 20th century typically took about 11.3 years to begin their breakthrough work, but after the quantum revolution, that dropped to around 9.4 years. In medicine, modern laureates (post-1945) started their prize-winning research after just 7.6 years, about 25% faster than their historical predecessors.

The data also revealed dramatic shifts in where scientific innovation happens. Among scientists receiving their highest degrees before 1918, only 10-21% spent their careers in the United States. For those educated after 1945, that proportion jumped to 57-65%, highlighting America’s rising dominance in scientific research throughout the 20th century.

“I think the same might even be true of great painters and artists and anyone in a creative domain – their genius is coming up with novel ideas and expressing them in novel ways. And it helps to move and meet others with different ideas,” says Weinberg.

While the study focused on Nobel Prize winners, an admittedly rarefied group, the researchers believe their findings have broader implications for fostering innovation.

“I think it’s important to remember that Nobel Laureates’ experiences may (or may not!) generalize to the ‘average person,’ if there is such a thing,” Weinberg tells StudyFinds. “We think that doing things that expose people to new ideas or novel mixes of ideas could help people be more creative.”

The authors clarify that they don’t necessarily view Nobel laureates as the most important innovators in their fields, but rather as a significant group of contributors who happen to have the comprehensive historical data needed for this type of analysis.

“We are now using natural language processing to look at how people get new ideas from the people they have worked with. Basically, advances in natural language processing have made it possible to track the flows of ideas across people,” adds Weinberg.

Rather than building permanent clusters of similar experts, institutions might better foster breakthroughs by encouraging scientist mobility and cross-pollination between different research environments. For ambitious scientists or anyone looking to take their ideas to the next level, sometimes a change of scenery is exactly what you need to spark your next big idea.

Paper Summary

Methodology

The researchers constructed a unique dataset that included detailed biographical information on Nobel laureates in chemistry, medicine, and physics from 1901 to 2003. They identified when each scientist began their prize-winning work by examining Nobel autobiographies, statements from Nobel Committees, and other sources. The study defined a “new location” as a place where a scientist had not been in the previous five years, and “multiple locations” referred to scientists who maintained positions in different locations simultaneously for at least one month. Using a statistical model called a discrete-time hazard model, they examined how these location variables affected the probability that a scientist would commence their Nobel Prize-winning work in a given year, controlling for factors such as field, career stage, and the number of eventual Nobel laureates in their location as a measure of colleague quality.

Results

The study found that scientists who moved to new locations every two years began their Nobel Prize-winning work 1.99 years earlier on average than those who never changed locations, while those who always maintained multiple affiliations started their prize-winning work 2.59 years earlier than those who never did. These effects were statistically significant even after controlling for colleague quality and other variables. The research also documented historical trends showing that scientists have increasingly concentrated in the United States over time, with 57-65% of post-1945 laureates working in the U.S. compared to just 10-21% of pre-1918 laureates.

Limitations

The researchers acknowledge that their focus on Nobel Prize winners limits the generalizability of their findings to less accomplished scientists. There’s also potential selection bias, as the most talented scientists might have more opportunities for new positions or multiple affiliations. The study attempts to address this by controlling for colleague quality and noting that the similarity of effects when excluding quality controls suggests limited bias. Additionally, their measure of colleague quality (the number of eventual Nobel laureates in a location) is acknowledged as imperfect but was the most feasible approach given the historical scope of the data.

Funding and Disclosures

The research was supported by the National Science Foundation (SES-0136928 and SES-0627968); NSF through DGE-1760544, DGE-1535399, DGE-1348691, and SciSIP-1064220; the National Institute on Aging and the Office of Behavioral and Social Science Research (P01 AG039347); and the John Templeton, Ewing Marion Kauffman, and Alfred P. Sloan Foundations. Co-author Weinberg and his work were supported directly by the National Bureau of Economic Research and indirectly by Ohio State via P01 AG039347.

Publication Information

The study, “Recombinant Innovation, Novel Ideas, and the Start of Nobel Prize–Winning Work,” was authored by John C. Ham, Brian Quistorff, and Bruce A. Weinberg and published in the International Economic Review in 2025. The manuscript was received in August 2022, revised in April 2024, and accepted in October 2024.

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