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Linzixuan (Rhoda) Zhang wins 2024 Collegiate Inventors Competition

Linzixuan (Rhoda) Zhang, a doctoral candidate in the MIT Department of Chemical Engineering, recently won the 2024 Collegiate Inventors Competition, medaling in both the Graduate and People’s Choice categories for developing materials to stabilize nutrients in food with the goal of improving global health.  

The annual competition, organized by the National Inventors Hall of Fame and United States Patent and Trademark Office (USPTO), celebrates college and university student inventors. The finalists present their inventions to a panel of final-round judges composed of National Inventors Hall of Fame inductees and USPTO officials. 

No stranger to having her work in the limelight, Zhang is a three-time winner of the Koch Institute Image Awards in 2022, 2023, and 2024, as well as a 2022 fellow at the MIT Abdul Latif Jameel Water and Food Systems Lab.  

“Rhoda is an exceptionally dedicated and creative student. Her well-deserved award recognizes the potential of her research on nutrient stabilization, which could have a significant impact on society,” says Ana Jaklenec, one of Zhang’s advisors and a principal investigator at MIT’s Koch Institute for Integrative Cancer Research. Zhang is also advised by David H. Koch (1962) Institute Professor Robert Langer. 

Frameworks for global health

In a world where nearly 2 billion people suffer from micronutrient deficiencies, particularly iron, the urgency for effective solutions has never been greater. Iron deficiency is especially harmful for vulnerable populations such as children and pregnant women, since it can lead to weakened immune systems and developmental delays. 

The World Health Organization has highlighted food fortification as a cost-effective strategy, yet many current methods fall short. Iron and other nutrients can break down during processing or cooking, and synthetic additives often come with high costs and environmental drawbacks. 

Zhang, along with her teammate, Xin Yang, a postdoc associate at Koch Institute, set out to innovate new technologies for nutrient fortification that are effective, accessible, and sustainable, leading to the invention nutritional metal-organic frameworks (NuMOFs) and the subsequent launch of MOFe Coffee, the world’s first iron-fortified coffee. NuMOFs not only protect essential nutrients such as iron while in food for long periods of time, but also make them more easily absorbed and used once consumed.

The inspiration for the coffee came from the success of iodized salt, which significantly reduced iodine deficiency worldwide. Because coffee and tea are associated with low iron absorption, iron fortification would directly address the challenge.

However, replicating the success of iodized salt for iron fortification has been extremely challenging due to the micronutrient’s high reactivity and the instability of iron(II) salts. As researchers with backgrounds in material science, chemistry, and food technology, Zhang and Yang leveraged their expertise to develop a solution that could overcome these technical barriers. 

The fortified coffee serves as a practical example of how NuMOFs can help people increase their iron intake by engaging in a habit that’s already part of their daily routine, with significant potential benefits for women, who are disproportionately affected by iron deficiency. The team plans to expand the technology to incorporate additional nutrients to address a wider array of nutritional deficiencies and improve health equity globally.

Fast-track to addressing global health improvements

Looking ahead, Zhang and Yang in the Jaklenec Group are focused on both product commercialization and ongoing research, refining MOFe Coffee to enhance nutrient stability and ensuring the product remains palatable while maximizing iron absorption.

Winning the CIC competition means that Zhang, Yang, and the team can fast-track their patent application with the USPTO. The team hopes that their fast-tracked patent will allow them to attract more potential investors and partners, which is crucial for scaling their efforts. A quicker patent process also means that the team can bring the technology to market faster, helping improve global nutrition and health for those who need it most. 

“Our goal is to make a real difference in addressing micronutrient deficiencies around the world,” says Zhang.  

Dancing with currents and waves in the Maldives

Any child who’s spent a morning building sandcastles only to watch the afternoon tide ruin them in minutes knows the ocean always wins.

Yet, coastal protection strategies have historically focused on battling the sea — attempting to hold back tides and fighting waves and currents by armoring coastlines with jetties and seawalls and taking sand from the ocean floor to “renourish” beaches. These approaches are temporary fixes, but eventually the sea retakes dredged sand, intense surf breaches seawalls, and jetties may just push erosion to a neighboring beach. The ocean wins.

With climate change accelerating sea level rise and coastal erosion, the need for better solutions is urgent. Noting that eight of the world’s 10 largest cities are near a coast, a recent National Oceanic and Atmospheric Administration (NOAA) report pointed to 2023’s record-high global sea level and warned that high tide flooding is now 300 to 900 percent more frequent than it was 50 years ago, threatening homes, businesses, roads and bridges, and a range of public infrastructure, from water supplies to power plants.    

Island nations face these threats more acutely than other countries and there’s a critical need for better solutions. MIT’s Self-Assembly Lab is refining an innovative one that demonstrates the value of letting nature take its course — with some human coaxing.

The Maldives, an Indian Ocean archipelago of nearly 1,200 islands, has traditionally relied on land reclamation via dredging to replenish its eroding coastlines. Working with the Maldivian climate technology company Invena Private Limited, the Self-Assembly Lab is pursuing technological solutions to coastal erosion that mimic nature by harnessing ocean currents to accumulate sand. The Growing Islands project creates and deploys underwater structures that take advantage of wave energy to promote accumulation of sand in strategic locations — helping to expand islands and rebuild coastlines in sustainable ways that can eventually be scaled to coastal areas around the world. 

“There’s room for a new perspective on climate adaptation, one that builds with nature and leverages data for equitable decision-making,” says Invena co-founder and CEO Sarah Dole.

MIT’s pioneering work was the topic of multiple presentations during the United Nations General Assembly and Climate week in New York City in late September. During the week, Self-Assembly Lab co-founder and director Skylar Tibbits and Maldives Minister of Climate Change, Environment and Energy Thoriq Ibrahim also presented findings of the Growing Islands project at MIT Solve’s Global Challenge Finals in New York.

“There’s this interesting story that’s emerging around the dynamics of islands,” says Tibbits, whose U.N.-sponsored panel (“Adaptation Through Innovation: How the Private Sector Could Lead the Way”) was co-hosted by the Government of Maldives and the U.S. Agency for International Development, a Growing Islands project funder. 

In a recent interview, Tibbits said islands “are almost lifelike in their characteristics. They can adapt and grow and change and fluctuate.” Despite some predictions that the Maldives might be inundated by sea level rise and ravaged by erosion, “maybe these islands are actually more resilient than we thought. And maybe there’s a lot more we can learn from these natural formations of sand … maybe they are a better model for how we adapt in the future for sea level rise and erosion and climate change than our man-made cities.”

Building on a series of lab experiments begun in 2017, the MIT Self-Assembly Lab and Invena have been testing the efficacy of submersible structures to expand islands and rebuild coasts in the Maldivian capital of Male since 2019. Since then, researchers have honed the experiments based on initial results that demonstrate the promise of using submersible bladders and other structures to utilize natural currents to encourage strategic accumulation of sand.

The work is “boundary-pushing,” says Alex Moen, chief explorer engagement officer at the National Geographic Society, an early funder of the project.

“Skylar and his team’s innovative technology reflect the type of forward-thinking, solutions-oriented approaches necessary to address the growing threat of sea level rise and erosion to island nations and coastal regions,” Moen said.

Most recently, in August 2024, the team submerged a 60-by-60-meter structure in a lagoon near Male. The structure is six times the size of its predecessor installed in 2019, Tibbits says, adding that while the 2019 island-building experiment was a success, ocean currents in the Maldives change seasonally and it only allowed for accretion of sand in one season.

“The idea of this was to make it omnidirectional. We wanted to make it work year-round. In any direction, any season, we should be accumulating sand in the same area,” Tibbits says. “This is our largest experiment so far, and I think it has the best chance to accumulate the most amount of sand, so we’re super excited about that.”

The next experiment will focus not on building islands, but on overcoming beach erosion. This project, planned for installation later this fall, is envisioned to not only enlarge a beach but also provide recreational benefits for local residents and enhanced habitat for marine life such as fish and corals.

“This will be the first large-scale installment that’s intentionally designed for marine habitats,” Tibbits says.

Another key aspect of the Growing Islands project takes place in Tibbits’ lab at MIT, where researchers are improving the ability to predict and track changes in low-lying islands through satellite imagery analysis — a technique that promises to facilitate what is now a labor-intensive process involving land and sea surveys by drones and researchers on foot and at sea.

“In the future, we could be monitoring and predicting coastlines around the world — every island, every coastline around the world,” Tibbits says. “Are these islands getting smaller, getting bigger? How fast are they losing ground? No one really knows unless we do it by physically surveying right now and that’s not scalable. We do think we have a solution for that coming.”

Also hopefully coming soon is financial support for a Mobile Ocean Innovation Lab, a “floating hub” that would provide small island developing states with advanced technologies to foster coastal and climate resilience, conservation, and renewable energy. Eventually, Tibbits says, it would enable the team to travel “any place around the world and partner with local communities, local innovators, artists, and scientists to help co-develop and deploy some of these technologies in a better way.”

Expanding the reach of climate change solutions that collaborate with, rather than oppose, natural forces depends on getting more people, organizations, and governments on board. 

“There are two challenges,” Tibbits says. “One of them is the legacy and history of what humans have done in the past that constrains what we think we can do in the future. For centuries, we’ve been building hard infrastructure at our coastlines, so we have a lot of knowledge about that. We have companies and practices and expertise, and we have a built-up confidence, or ego, around what’s possible. We need to change that.

“The second problem,” he continues, “is the money-speed-convenience problem — or the known-versus-unknown problem. The hard infrastructure, whether that’s groins or seawalls or just dredging … these practices in some ways have a clear cost and timeline, and we are used to operating in that mindset. And nature doesn’t work that way. Things grow, change, and adapt on their on their own timeline.”

Teaming up with waves and currents to preserve islands and coastlines requires a mindset shift that’s difficult, but ultimately worthwhile, Tibbits contends.

“We need to dance with nature. We’re never going to win if we’re trying to resist it,” he says. “But the best-case scenario is that we can take all the positive attributes in the environment and take all the creative, positive things we can do as humans and work together to create something that’s more than the sum of its parts.”

School of Engineering faculty receive awards in summer 2024

Faculty and researchers receive many external awards throughout the year. The MIT School of Engineering periodically highlights the honors, prizes, and medals won by community members working in academic departments, labs, and centers. Summer 2024 honorees include the following:

Polina Anikeeva, the Matoula S. Salapatas Professor of Materials Science and Engineering, professor of brain and cognitive sciences, and head of the Department of Materials Science and Engineering, was recognized as a finalist for the Blavatnik National Awards in the category of physical sciences and engineering. The Blavatnik National Awards for Young Scientists is the largest unrestricted scientific prize offered to America’s most promising, faculty-level scientific researchers under the age of 42.

Gabriele Farina, the X-Window Consortium Career Development Professor and assistant professor in the Department of Electrical Engineering and Computer Science (EECS), received an honorable mention for the 2023 Doctoral Dissertation Award. The award is presented annually to the author(s) of the best doctoral dissertation(s) in computer science and engineering.

James Fujimoto, the Elihu Thomson Professor in Electrical Engineering, won the 2024 Honda Prize for his research group’s development of optical coherence tomography. The Honda Prize is an international award that acknowledges the efforts of an individual or a group to contribute new ideas that may lead the next generation in the field of ecotechnology.

Jeehwan Kim, an associate professor in MIT’s departments of Mechanical Engineering and Materials Science and Engineering, won the engineering and technology category for the 2024 Falling Walls Global Call for his innovations in semiconductor technology. The Falling Walls Global Call is an international competition that seeks the most recent and innovative science breakthroughs, bringing together science enthusiasts from diverse backgrounds.

Samuel Madden, the College of Computing Distinguished Professor of Computing and faculty head of computer science in the Department of EECS, received the Edgar F Codd Innovations Award. The award is given for innovative and highly significant contributions of enduring value to the development, understanding, or use of database systems and databases.

Jelena Notaros, an assistant professor in the Department of EECS, received the 2024 Optica CLEO Highlighted Talk Award as co-principal investigator. The Optica CLEO Awards Program celebrates the field’s technical, research, education, business, leadership, and service accomplishments.

Carlos Portela, the Robert N. Noyce Career Development Professor in the Department of Mechanical Engineering, received the Army Early Career Program Award. The award is among the most prestigious honors granted by the U.S. Army Research Office to outstanding early-career scientists.

Yogesh Surendranath, the Donner Professor of Science in the departments of Chemical Engineering and Chemistry, was recognized as a finalist for the Blavatnik National Awards in the category of chemical sciences. The Blavatnik National Awards for Young Scientists is the largest unrestricted scientific prize offered to the United States’ most promising, faculty-level scientific researchers under the age of 42.

Ashia Wilson, an assistant professor in the Department of EECS, received the Best Paper Award at the 2024 ACM Conference on Fairness, Accountability, and Transparency (ACM FAccT). ACM FAccT is an interdisciplinary conference dedicated to bringing together a diverse community of scholars from computer science, law, social sciences, and humanities to investigate and tackle issues in this emerging area.

Bringing lab testing to the home

Six in 10 Americans are living with at least one chronic disease, and four in 10 Americans have two or more chronic diseases. Some of those diseases, such as hypothyroidism and inflammatory diseases, require individuals to carefully track certain blood tests in order to manage their conditions. Unfortunately, that usually means an onerous cycle of scheduling appointments, traveling to hospitals, and waiting for lab results.

Now SiPhox Health is working to help patients and their doctors manage diseases from the comfort of their home with a new kind of blood test based on a silicon photonic chip. The system is the size of a coffee maker and can produce precise readings for 20 different biomarkers.

The chip-based device is not yet FDA-cleared, so it is currently only being used for research purposes, but SiPhox also provides mail-in blood testing to thousands of people with chronic diseases, both directly and through other health care and wellness businesses, using approved technology. The company hopes its new system can soon deliver faster results to every home that needs it.

“A lot of blood tests aren’t done because they’re too inconvenient,” SiPhox founder and former MIT researcher Michael Dubrovsky says. “People skip scheduled blood tests, and physicians don’t always prescribe blood tests because they know it’s inconvenient. That requires them to base their decisions on symptoms, and that’s not optimal for many of these chronic diseases.”

Dubrovsky and SiPhox co-founder Diedrik Vermeulen met at MIT while researching photonic chip and laser technology. They see SiPhox’s technology as the latest in a long trend toward smaller and more scalable devices as they are condensed onto integrated chips.

“Biolabs typically do blood testing with these large instruments that are full of optics, lasers, lenses, mirrors, and all these very expensive features,” Vermeulen says. “We don’t change any of the main features. We leave all the optics the same, but we miniaturize it onto our chips and make it so scalable that you can ship it to homes. It’s like how computers used to be the size of a room and you could only find them in high-end universities — now they’re all on a chip. We’re doing the same for blood testing.”

Photonic chips with electric properties

Dubrovsky and Vermeulen met through the MIT ecosystem in 2019. Vermeulen had worked in MIT’s Silicon Photonics Group within the Research Laboratory of Electronics and Dubrovsky was working in the MIT Materials for Micro and Nano Systems group.

The two quickly bonded over a new way to approach optical chips.

“We had this idea of doing optical chips more like a printed circuit board,” Vermeulen explains. “Electrical chips incorporate a lot of chips on one circuit board, but optical chips typically do everything with a single chip. We wanted to combine optical chips into a new kind of circuit board.”

The founders met regularly in the Martin Trust Center for MIT Entrepreneurship to refine their approach. In February of 2020, they started filing patents and receiving guidance from MIT professors. They also entered the START.nano program, which helps early-stage companies accelerate their innovations by giving them access to MIT.nano’s laboratories and equipment.

The same lasers that are used to mass produce traditional silicon chips can be used to manufacture SiPhox’s integrated photonic silicon chips. Each 1-millimeter chip contains lenses, polarizers, modulators, splitters, and other optical components you’d see in a traditional lab-based system, but SiPhox’s chips are cheap enough to be single-use.

Just as the founders were deciding on the first application for their new chip, the Covid-19 pandemic hit. They took that as a sign.

“We decided to focus on biosensing, with one of our chips being disposable and the other one being reusable,” Vermeulen says.

The founders worked to detect infectious disease with their chips but realized the technology was better suited for high-fidelity blood testing.

“I worked a lot on tunable lasers at MIT, and we use a slightly different approach to lasers at SiPhox,” Vermeulen says. “We applied all of the lessons we learned at MIT to design something from scratch.”

SiPhox’s chip testing system works with third-party arm patches that people already use to collect blood samples at home. Dubrovsky likens the system to a Nespresso machine in which users simply place a pod into the machine and press a button. Each of SiPhox’s disposable cartridges contains an array of photonic immunoassay sensors that can be used to detect specific proteins or hormones.

The system includes a dashboard that can be viewed by a physician or the patient themselves to get biomarker data at home. The dashboard also provides historic data and educational content about the biomarkers measured. SiPhox also uses large language models to parse third-party blood test data, allowing users to track traditional blood tests in the same dashboard.

Because the approach makes use of semiconductor lasers and silicon chips, the founders say a single traditional chip manufacturing facility, or fab, could produce 1 billion of SiPhox’s chips every month.

“Our technology is very scalable because it’s all on a chip,” Vermeulen says. “There are only two ways to really scale something: You can do injection molding; that’s how you produce billions of plastic cups, for instance. But if you want to scale something very complex, you have to put it on a silicon chip.”

A platform for health

The founders believe their technology could enable a world where tracking biomarkers is as easy as brushing your teeth. That would have huge implications for the tens of millions of Americans who need to get regular blood tests to manage chronic diseases.

“For people with inflammatory diseases, tracking inflammation levels is very important because they can develop resistance to their medicine,” Dubrovsky says. “Once they experience symptoms of a flare-up, it’s very hard to reverse. And these symptoms can be horrible, so catching it early is really important.”

To gain FDA clearance, SiPhox plans to begin studies in coming months, but its system’s accuracy has already been validated by third parties, and the company’s Burlington, Massachusetts, facility is capable of manufacturing about 10,000 of its cartridges per month.

Once SiPhox gains FDA clearance, it plans to partner with health care systems, health insurers, employers, and mail-in blood testing companies to help people everywhere track their health.

“We can offer a new way for people to access health care in their home,” Vermeulen says. “Once they have our blood testing device, whether for a chronic disease or something else, anytime they want telehealth-enabled by blood testing, they can use our device, similar to how Apple users have access to third-party apps from many different service providers. Siphox users will have access to curated third-party services built on top of the core blood testing capability.”

Stopping the bomb

“The question behind my doctoral research is simple,” says Kunal Singh, an MIT political science graduate student in his final year of studies. “When one country learns that another country is trying to make a nuclear weapon, what options does it have to stop the other country from achieving that goal?” While the query may be straightforward, answers are anything but, especially at a moment when some nations appear increasingly tempted by the nuclear option.

From the Middle East to India and Pakistan, and from the Korean peninsula to Taiwan, Singh has been developing a typology of counterproliferation strategies based on historical cases and to some degree on emergent events. His aim is to clarify what states can do “to stop the bomb before it is made.” Singh’s interviews with top security officials and military personnel involved in designing and executing these strategies have illuminated tense episodes in the past 75 years or so when states have jockeyed to enter the elite atomic club. His insights might upend some of the binary thinking that dominates the field of nuclear security.

“Ultimately, I’d like my work to help decision-makers predict counterproliferation strategy, and draw lessons from it on how to shield their own citizens and economies from the impact of these strategies,” he says.

Types of nonproliferation tactics

On Oct. 7, 2023, Singh awoke to air raid sirens in Jerusalem, where he was conducting interviews, and discovered Israel was under attack. He was airlifted to safety back to the United States, having borne witness to the start of a regional war that “now has become relevant to my research,” he says.

Before his hasty departure, Singh was investigating two singular episodes where military force was deployed to advance nonproliferation goals: Israel’s airstrikes against nuclear reactors in 1981 in Iraq, and in 2007 in Syria. To date, these have been the only major attacks on nuclear facilities outside of an active war.

“I spoke with Prime Minister Ehud Olmert, who ordered the strike in Syria, and with the commander of the Israeli Air Force who planned the Iraq airstrike, as well as with other members of the security bureaucracy,” says Singh. “Israel feels a large degree of threat because it is a very small country surrounded by hostile powers, so it takes a military route to stop another state from acquiring nuclear weapons,” says Singh. But, he notes, “most of the states which are not in this predicament generally resort to diplomatic methods first, and threaten violence only as a last resort.”

Singh defines the military response by Israel as “kinetic reversion,” one of five types of counterproliferation strategies he has identified. Another is “military coercion,” where a state threatens the use of military force or uses moderate force to demonstrate its commitment to preventing the pursuit of the bomb. States can also use diplomatic and economic leverage over the proliferant to persuade it to drop its nuclear program, what Singh calls “diplomatic inhibition.” 

One form this strategy takes is when one country agrees to give up its program in return for the other doing the same. Another form involves “placing sanctions on a country and excluding them from the world economy, until the country rolls back its program — a strategy the U.S. has employed against Iran, North Korea, Libya, and Pakistan,” says Singh.

India was rumored to have embraced military tactics. “I had always read about the claim that India was ready to attack the Pakistani uranium enrichment plant in Kahuta, and that planes were called off at the last minute,” Singh says. “But in interview after interview I found this was not the case, and I discovered that many written accounts of this episode had been completely blown up.”

In another strategy, “pooled prevention,” nations can band together to apply economic, diplomatic, and military pressure on a potential proliferator.

Singh notes that diplomatic inhibition, pooled prevention, and military coercion have succeeded, historically. “In 2003, Libya gave up its nuclear weapons program completely after the U.S. and U.K. placed sanctions on it, and many states do not even start a nuclear weapons program because they anticipate an attack or a sanction.”

The final strategy Singh defines is “accommodation,” where one or more states decide not to take action against nuclear weapon development. The United States arrived at this strategy when China began its nuclear program — after first considering and rejecting military attacks.

Singh hopes that his five kinds of strategies challenge a “binary trap” that most academics in the field fall into. “They think of counterproliferation either as military attack or no military attack, economic sanctions or no sanctions, and so they miss out on the spectrum of behaviors, and how fluid they can be.”

From journalism to security studies

Singh grew up in Varanasi, a Hindu holy city in the state of Uttar Pradesh. Frequent terrorist attacks throughout India, and some inside his city’s temples, made a deep impression on him during his childhood, he says. A math and science talent, he attended the Indian Institute of Technology, majoring in metallurgical and materials engineering. After a brief stint with a management consulting firm, after college, he landed a job at a think tank, the Center for Policy Research in New Delhi.

“When I moved to New Delhi, I suddenly saw a world which I didn’t know existed,” Singh recalls. “I began meeting people for an evening round of discussions and began reading voraciously: books, editorial and opinion pages in newspapers, and looking for a greater sense of purpose and meaning in my work.”

His widening interests led to a job as staff writer, first at Mint, a business newspaper, and then to the Hindustan Times, working on both papers’ editorial pages. “This was where most of my intellectual development happened,” says Singh. “I made social connections, and many of them grew more towards the academics in the security field.”

Writing about a nuclear security question one day, Singh reached out to an expert in the United States: Vipin Narang, the Frank Stanton Professor of Nuclear Security and Political Science at MIT. Over time, Narang helped Singh realize that the kind of questions Singh hoped to answer “lay more in the academic than in the journalistic domain,” recounts Singh.

In 2019, he headed to MIT and began a doctoral program focused on security studies and international relations. In his dissertation, “Nipping the Atom in the Bud: Strategies of Counterproliferation and How States Choose Among Them,” Singh hopes to move beyond a classic, academic debate: that nuclear weapons are either very destabilizing, or very stabilizing.

“Some argue that there is stability in the world because two states armed with nuclear weapons will avoid nuclear war, because they understand nobody will win a nuclear war,” explains Singh. “If this view is true, then we shouldn’t be alarmed by the proliferation of these weapons.” But “the counterargument is that there will always be an off chance someone will use these weapons, and so states should “try to use all their military and economic might to prevent another state from gaining nuclear weapons.”

As it turns out, neither extreme view governs in the real world. “The main takeaway from my research is that states are obviously concerned when some other country tries to make nuclear weapons, but they are not so concerned that in order to prevent a future destabilizing event, they are ready to destabilize the world as of now.”

In the final throes of writing his thesis and preparing for life as an academic, Singh remains alert to the parlous state of affairs in the Middle East and elsewhere. “I keep following events, knowing that something may prove relevant to my research,” he says.

Given the tense times and the often dark implications of his subject matter, Singh has found an optimal mode of blowing off steam: a daily badminton match. He and his wife also “binge watch either a spy thrill or a murder mystery every Saturday,” he says.

In a world both increasingly interconnected and increasingly threatened by regional conflicts, Singh believes, “there is still much to be discovered about how the world thinks about nuclear weapons, including what the impacts of nuclear weapons use might be,” he says. “I’d like to help shine a light on those new things, and broaden our understanding of nuclear weapons and the politics of nuclear security.”

Samurai in Japan, then engineers at MIT

In 1867, five Japanese students took a long sea voyage to Massachusetts for some advanced schooling. The group included a 13-year-old named Eiichirō Honma, who was from one of the samurai families that ruled Japan. Honma expected to become a samurai warrior himself, and enrolled in a military academy in Worcester.

And then some unexpected things happened.

Japan’s ruling dynasty, the shogunate that had run the country since the 17th century, lost power. No longer obligated to become a warrior, Honma found himself free to try other things in life. In 1870, he enrolled in the recently opened Massachusetts Institute of Technology, where he studied civil engineering. By 1874, Honma had become MIT’s first graduate from Japan.

“Honma may have thought he was going to be a military officer, but by the time he got to MIT he wanted to do something else,” says Hiromu Nagahara, an associate professor of history at MIT. “And that something else was the hottest technology of its time: railroads.” Indeed, Honma returned to Japan and became a celebrated engineer of rail lines, including one through the mountainous Usai Pass in central Japan.

Now, 150 years after he graduated, Honma is a central part of an exhibit about MIT’s earliest Japanese students, “From Samurai into Engineers,” which runs through Dec. 19 at Hayden Library.

The exhibit features two other early MIT graduates from Japan. Takuma Dan, Class of 1878, was also from a samurai household, studied mining engineering at MIT, and eventually became prominent in Japan as head of the Mitsui corporation. Kiyoko Makino was the first Japanese woman and the first female international student to enroll at MIT, where she studied biology from 1903 to 1905, later becoming a teacher and textbook author in Japan.

Tracing their lives sheds light on interesting careers — and illuminates a historical period in which MIT was reaching prominence, Japan was opening itself to the world, and modern life was rolling forward.

“When we look at Eiichirō Honma, Takuma Dan, and Kiyoko Makino, their lives fit the larger context of the relationship between America and Japan,” says Nagahara.

The making of “From Samurai into Engineers” was a collective effort, partly generated through MIT course 21H.155/21G.555 (Modern Japan), taught by Nagahara in the spring of 2024. Students contributed to the research and wrote short historical summaries incorporated into the exhibition. The exhibit draws on original archival materials, such as the students’ letters, theses, problem sets, and other documents. Honma’s drawings for an iron girder railroad bridge, as part of his own MIT thesis, are on display, for instance.

Others on campus significantly collaborated on the project from its inception. Christine Pilcavage, managing director of the MIT-Japan Program, helped encourage the development of the effort, having held an ongoing interest in the subject.

“I’m in awe of this relationship that we’ve had since the first Japanese students were at MIT,” Pilcavage says. “We’ve had this long connection. It shows that MIT as an Institute is always innovating. Each side had much to gain, from Honma coming to MIT, learning technology, and returning to Japan, while also mentoring other students, including Dan.”

Much of the research was facilitated by MIT Libraries and its Distinctive Collections holdings, which contain the archives used for the project. Amanda Hawk, who is the public services manager in the library system, worked with Nagahara to facilitate the research by the class.

“Distinctive Collections is excited to support faculty and student projects related to MIT history, particularly those that illuminate unknown stories or underrepresented communities,” Hawk says. “It was rewarding to collaborate with Hiromu on ‘From Samurai into Engineers’ to place these students within the context of Japanese history and the development of MIT.”

The fact that MIT had students from Japan as soon as 1870 might seem improbable on both ends of this historical connection. MIT opened in 1861 but did not start offering classes until 1865. Still, it was rapidly recognized as a significant locus of technological knowledge. Meanwhile the historic changes in Japan created a small pool of students willing to travel to Massachusetts for education.

“The birth of MIT in the 1860s coincides with a period of huge political economic and cultural upheaval in Japan,” Nagahara says. “It was a unique moment when there was a both a desire to go overseas and a government willingness to let people go overseas.”

Overall, the experience of the Japanese students at MIT seems to have been fairly smooth from the start, enabling them to have a strong focus on scholarship.

“Honma seemed to have been quite well-received,” Pilcavage says, who wonders if Honma’s social status — he was occasionally called “prince” — contributed to that. Still, she notes, “He was invited to other people’s homes on Thanksgiving. It didn’t seem like he faced extreme prejudice. The community welcomed him.”

The three Japanese students featured in the exhibit wound up leading distinctive lives. While Honma became a celebrated engineer, Dan was an even higher-profile figure. At MIT, he studied mining engineering with Robert Hollawell Richards, husband of Ellen Swallow Richards, MIT’s first female student and instructor. After starting as a mining engineer at Mitsui in 1888, by 1914 he had become chair of the board of the Mitsui conglomerate. Dan even came back to visit MIT twice as a distinguished alumnus, in 1910 and 1921.

Dan was also a committed internationalist, who believed in cooperation among nations, in contrast to the rising nationalism often present in the 1920s and 1930s. In 1932, he was shockingly assassinated outside of Mitsui headquarters in Tokyo, a victim of nationalist terrorism. Robert Richards wrote that it was “one of those terrible things which no man in his senses can understand.”

Makino, for her part, led a much quieter life, and her status as an early student was only rediscovered in recent years by librarians working in MIT’s Distinctive Collections materials. After MIT, she returned to Japan and became a high school biology teacher in Tokyo. She also authored a textbook, “Physiology of Women.”

MIT archivists and students are continuing to research Makino’s life, and earlier this year also uncovered news articles written about her in New England newspapers while she was in the U.S. Nagahara hopes many people will continue researching MIT’s earliest Japanese students, including Sutejirō Fukuzawa, Class of 1888, the son of a well-known Japanese intellectual.

In so doing, we may gain more insight into the ways MIT, universities, and early students played concrete roles in ushering their countries into the new age. As Nagahara reflects about these students, “They’re witnessing both America and Japan become modern nation-states.”

And as Pilcavage notes, Honma’s status as a railroad builder “is symbolic. We continue to build a bridge between our institution and Japan.”