The Moore Inventor Fellowship, now in its tenth cohort, celebrates the ongoing commitment of the foundation to nurture visionary inventors who will shape the next half-century of scientific advancements. Since its inception, the fellowship has funded 50 inventors with a $35 million investment, fostering innovation across multiple disciplines by providing a substantial $675,000 grant over three years to each fellow. Ma is among just five scientists selected from nearly 250 applicants, a testament to the uniqueness and significance of her research trajectory.

Born from the visionary impetus of Gordon Moore, famed for Moore’s Law that predicted the exponential growth of computing power, the fellowship promotes technologies that push the boundaries of science and engineering. Ma’s research embodies this visionary legacy by focusing on the design of twistronic artificial synapses—innovative semiconductor devices engineered to emulate the complex behavior of neuronal networks in the human brain. Through twistronics, which manipulates the angle between stacked two-dimensional materials to produce new electronic properties, Ma’s work leverages quantum mechanical principles to develop artificial synapses capable of sophisticated information processing.

While traditional semiconductors have served as the foundation for modern digital computing, they fall short when mimicking the brain’s analog, parallel processing capabilities. Ma’s neuron transistors, devised using twistronic methodologies, are electronic circuits that recreate synaptic plasticity—the brain’s ability to strengthen or weaken connections in response to electrical activity. This groundbreaking approach allows for networks of these devices to function in a brain-inspired manner, executing complex computational tasks with efficiency and adaptability far beyond classical silicon architectures.

A pivotal aspect of Ma’s research explores how delicate stacking and angular alignment of 2D materials, such as graphene or transition metal dichalcogenides, can give rise to emergent quantum phenomena including superconductivity and correlated insulating states. These phenomena provide the physical substrate necessary for constructing synaptic devices whose electrical conductivity dynamically changes in response to stimuli, mirroring the adaptive learning properties fundamental to biological neurons and synapses. The result is a new hardware platform for neuromorphic computing that promises improvements in energy efficiency and computational power for artificial intelligence applications.

Ma’s exploration into twistronics and artificial synapses is not just a theoretical pursuit; it involves the realization of functional devices that mimic the brain’s learning capabilities. Her work brings to light the rich interplay between condensed matter physics and computational neuroscience, two fields that rarely intersect at such a fundamental level. The “neuron transistors” she creates act as building blocks for platforms that could underlie future generations of brain-like computers designed to solve complex problems involving pattern recognition, sensory data integration, and autonomous decision-making.

The impact of Ma’s achievement is amplified by the broader significance of the Moore Inventor Fellowship, which aims to empower researchers at the interface of discovery and invention. The fellowship support enables Ma to acquire state-of-the-art scientific instruments essential for characterizing quantum materials and fabricating intricate nanodevices, as well as to bolster her research team with highly skilled postdoctoral fellows and graduate students. This funding facilitates an interdisciplinary research environment where physics, material science, and engineering converge to accelerate breakthroughs.

Since earning her Ph.D. at MIT and joining Boston College in 2021, Ma has rapidly distinguished herself with numerous accolades including the AFOSR and ONR Young Investigator Awards, a Sloan Fellowship, and honors from CIFAR and IUPAP. These achievements highlight her commitment to advancing knowledge of emergent phenomena in quantum materials, laying the foundation for technology that could revolutionize information processing architectures by mimicking natural intelligence at the hardware level.

The twistronic artificial synapse technology developed by Ma also holds promise beyond computing. By replicating neural behavior within synthetic materials, it opens pathways to better understand brain function and neurological disorders, potentially leading to novel bioelectronic devices and interfaces that integrate seamlessly with living tissue. This cross-disciplinary nexus marks a new era in which fundamental physics directly informs the design of devices capable of unprecedented interactions with biological systems.

Moreover, the Moore Inventor Fellowship’s emphasis on real-world impact aligns perfectly with Ma’s vision of being both a physicist and a hardware inventor, bridging theoretical insights with applied innovation. Her statement underscores the fellowship’s role in transforming abstract concepts of quantum materials and neural emulation into tangible scientific tools and technologies destined to reshape computing and brain-inspired systems.

As the final group of fellows completes the Moore Inventor Fellowship’s decade-long initiative, the scientific community eagerly anticipates how these inventive minds, including Ma, will translate their cutting-edge discoveries into solutions that address pressing challenges—from climate modeling and healthcare to autonomous systems and beyond. The fellowship’s legacy can be seen as a catalyst for the kind of interdisciplinary invention that defines 21st-century science.

In sum, Qiong Ma’s recognition as a 2025 Moore Inventor Fellow not only honors her pioneering work at the interface of quantum materials and neuromorphic computing but also underscores the transformative potential of merging physics with invention. Her search for materials that behave like the brain’s synapses offers a tantalizing glimpse into a future where computers are designed not just to compute but to learn and adapt like living organisms, heralding a revolution in how intelligence itself may be engineered.

Subject of Research: Quantum materials, twistronic artificial synapses, neuromorphic computing, emergent quantum phenomena, brain-inspired semiconductor devices.

Article Title: Boston College Physicist Qiong Ma Awarded 2025 Moore Inventor Fellowship for Breakthrough Work in Brain-Inspired Quantum Materials

News Publication Date: September 23, 2025

Web References:
https://www.moore.org/initiative-additional-info?initiativeId=moore-inventor-fellows

Image Credits: Boston College

Keywords: Qiong Ma, Moore Inventor Fellow, twistronics, artificial synapses, neuromorphic computing, quantum materials, brain-inspired transistors, Gordon and Betty Moore Foundation, emerging quantum phenomena, materials physics, neuron transistors, advanced semiconductor devices

At the core of the Life Sciences category, Dr. Daniele Canzio of the University of California, San Francisco, stands out for her pivotal work decoding the three-dimensional folding of genomes within neurons. This folding mechanism underpins neuronal identity, intricately influencing brain wiring and offering new perspectives on the molecular underpinnings of neurodevelopmental disorders. Such 3D genome architecture studies are reshaping our understanding of cellular differentiation and potentially unlocking novel therapeutic pathways targeting neurological disease etiology.

Further enriching the Life Sciences domain is Dr. Kaiyu Guan from the University of Illinois Urbana-Champaign, whose trailblazing integration of remote sensing, sophisticated modeling, and artificial intelligence reshapes agricultural paradigms. By developing predictive systems for sustainable farming practices, his work informs national agricultural policies and drives industry decarbonization. These innovations leverage high-resolution satellite data and machine learning algorithms to enhance crop yields while minimizing environmental footprints, positioning agriculture at the forefront of climate-responsive science.

The microbiological insights brought forward by Dr. Philip J. Kranzusch, affiliated with the Dana-Farber Cancer Institute and Harvard Medical School, have elucidated evolutionary links between bacterial and human innate immunity. His discovery that ancient bacterial pathways have been co-opted in human cellular defense mechanisms unravels the molecular choreography enabling resistance to infection and oncogenesis. This cross-kingdom evolutionary perspective may redefine therapeutic strategies that harness or modulate innate immune responses for combating infectious diseases and cancer.

From the realm of biomedical engineering, Dr. Elizabeth Nance at the University of Washington pioneers the engineering of nanoparticles optimized for brain delivery. Her advancements encompass the development of living brain tissue models to refine targeted, safe interventions for neonatal and pediatric brain injuries. These nanotechnologies navigate the formidable blood-brain barrier, offering a promising vector for delivering therapeutics directly to affected neural regions, thereby enhancing precision medicine for otherwise intractable neurological conditions.

Additionally, Dr. Tomasz Nowakowski’s contributions at UCSF focus on mapping the developmental trajectory of human brain cells, uncovering the dynamic processes of cellular growth and specialization during early neurodevelopment. His research sheds light on the foundational stages of brain formation and provides critical insights into the origins of various neurological disorders. By employing single-cell transcriptomics and lineage tracing, his work informs potential early interventions aimed at mitigating developmental brain diseases.

In the chemical sciences category, Dr. Song Lin of Cornell University propels organic chemistry forward through the advancement of innovative electrochemical methodologies. These approaches enable the sustainable synthesis of complex organic molecules by harnessing electricity as a clean reagent alternative. The implications for drug discovery and materials science are profound, as these electrochemical techniques offer controlled reaction pathways with reduced environmental impact and enhanced efficiency.

At The Pennsylvania State University, Dr. Joseph Cotruvo Jr.’s work fuses biochemistry and structural biology to pioneer novel proteins that selectively sequester rare earth elements. This breakthrough facilitates sustainable recycling and purification technologies critical for maintaining technology supply chains dependent on these metals. By elucidating protein-metal interactions at an atomic level, Cotruvo’s research paves the way for bioinspired approaches to address resource scarcity in electronics and green technologies.

Dr. Frank Leibfarth of the University of North Carolina at Chapel Hill has innovated catalytic processes to upcycle plastic waste and eradicate persistent toxic contaminants often referred to as “forever chemicals.” His work in polymer chemistry not only transforms waste management strategies but also redefines the boundaries of catalyst design and polymer structure-function relationships. By controlling these parameters, his research fosters the transition from a linear to a circular plastic economy with heightened environmental benefits.

In the arena of chemical engineering, Dr. Ryan Lively at Georgia Institute of Technology develops scalable membrane technologies for carbon capture and chemical purification. His research focuses on designing membranes that reduce industrial carbon emissions and energy consumption, thereby transforming efforts toward climate mitigation. These membrane systems leverage selective permeability and innovative materials to enhance process sustainability on an industrial scale.

Princeton University’s Dr. Leslie M. Schoop spearheads investigations into quantum materials, unveiling links between chemical bonding and emergent electronic and magnetic properties. Her work explores materials poised to revolutionize energy-efficient electronics, data storage, and quantum technologies. By understanding and manipulating bonding environments, Schoop aims to engineer novel compounds with tailored quantum behaviors that could underpin next-generation computational devices.

At the Massachusetts Institute of Technology, Dr. Yogesh Surendranath’s research tackles catalyst surfaces and electrostatic environments at molecular scales. This pioneering control revolutionizes chemical reaction pathways, fostering sustainable fuel production and markedly reducing carbon emissions. His innovations in electrocatalysis offer pathways toward clean energy technologies pivotal for global decarbonization goals.

Within Physical Sciences & Engineering, Harvard’s Dr. Charlie Conroy advances astrophysics and cosmology by decoding the Milky Way’s complex formation history. Through stellar archaeology and sophisticated modeling, his insights link dark matter distribution with the galaxy’s evolution, illuminating fundamental processes governing cosmic structure formation in the universe.

Dr. Nathaniel Craig, from the University of California, Santa Barbara, deepens theoretical physics by unraveling mechanisms that grant particles their mass, providing theoretical frameworks that will inform the design of next-generation particle colliders. His work refines our understanding of fundamental forces and particles, offering a roadmap for probing physics beyond the Standard Model.

At Georgia Tech, Dr. Matthew McDowell’s focus is on materials science and nanotechnology, specifically on understanding interfacial phenomena within solid-state batteries. His research addresses critical design challenges by dissecting internal battery interfaces, facilitating innovations that promise safer, more efficient, and longer-lasting energy storage solutions vital for the electrification of transport and renewable energy applications.

Princeton’s Dr. Prateek Mittal applies computer science expertise to cyber-security and internet privacy. His groundbreaking work supports the generation of over 2.5 billion cryptographic certificates securing more than 350 million websites globally, underscoring the essential role of cryptography in protecting digital infrastructure against evolving cyber threats.

Civil engineer Dr. Elaina J. Sutley from the University of Kansas presents comprehensive computational modeling techniques addressing disaster mitigation and recovery. Her efforts influence building codes and disaster readiness policies nationwide, emphasizing the intersection of engineering, public safety, and resilience in the face of natural hazards. Notably, this is the inaugural year that the Blavatnik Awards final include a researcher from the University of Kansas.

Last but not least, Dr. Zhongwen Zhan at the California Institute of Technology redefines observational seismology by deploying fiber optic cables as high-resolution sensors. This approach enables unprecedented monitoring of tectonic, volcanic, glacial, and oceanic processes, furnishing critical data that illuminate Earth’s dynamic systems and enhance predictive geological models.

Since its inception, the Blavatnik National Awards for Young Scientists have profoundly influenced scientific trajectories by recognizing and financially supporting bold, innovative research. The 2025 cycle features 18 finalists selected from an extensive and competitive pool of over 300 nominees, reflecting the nation’s vibrant and diverse scientific landscape. Each laureate will be honored with a $250,000 unrestricted prize, the largest of its kind globally for early-career scientists, affirming the commitment to nurturing transformative discoveries that can reshape science and society.

The upcoming awards ceremony, slated for October 7th at the American Museum of Natural History, serves as a platform not only to celebrate these extraordinary achievements but also to inspire the broader scientific community. The Blavatnik Awards have a documented legacy of accelerating scientific innovation, with recipients founding influential companies and generating economic impact exceeding $10 billion. This synergy of science, technology, and entrepreneurship exemplifies the foundational goals of the program: to foster research that not only advances knowledge but also drives tangible societal benefits.

Len Blavatnik, the founder of the Blavatnik Family Foundation, emphasizes the Awards’ mission to support scientists whose pioneering ideas stimulate progress and elevate human welfare. Complementing this vision, Nicholas B. Dirks, President and CEO of The New York Academy of Sciences, highlights the recipients’ role in advancing environmental sustainability, medical therapies, and fundamental physics, thereby safeguarding the planet and enriching human knowledge.

As the 2025 finalists continue to push the boundaries of their respective fields, the Blavatnik Awards remain a beacon celebrating curiosity, courage, and ingenuity. Their collective achievements underscore the vital importance of investing in young scientists who embody the spirit of inquiry and the promise of transformative impact on our world.

Subject of Research: Early-career breakthroughs in Life Sciences, Chemical Sciences, and Physical Sciences & Engineering.

Article Title: Announcing the Finalists of the 2025 Blavatnik National Awards for Young Scientists

News Publication Date: September 9, 2025

Web References:
https://blavatnikawards.org/
http://www.blavatnikfoundation.org/

Image Credits: Blavatnik Awards / The New York Academy of Sciences

Keywords: Research programs, Scientific community, Science communication, Science careers, Scientific organizations

This year’s winners include Jheannelle Johnson, Victor Ekuta, MD, Kenna Gloria Agbugba, and Nyasha Milanzi, each reflecting diverse backgrounds and a multitude of scientific interests. The awards provide each winner with a grant of $10,000 to support their ongoing research, highlighting the importance of financial backing in stimulating innovative solutions within various disciplines. The essays from the winners are featured in the journal Cell, providing them with a platform to share their unique experiences and insights with a broader audience.

Jheannelle Johnson, an emerging leader in the life and health sciences, is currently engaged in a Neurodegeneration Computational Fellowship at Stanford University. Her award-winning essay, “The sounds of music: Tracing memories and pathways through research and resistance,” intertwines her personal journey with her professional aspirations. Johnson draws on her connection with her grandmother, who is afflicted with Alzheimer’s disease, to underscore her commitment to understanding cell vulnerability—a vital area that could lead to groundbreaking insights into the condition’s treatment. Her work not only impacts the field of neuroscience but also inspires a broader discussion about the emotional and social dimensions of scientific inquiry.

Victor Ekuta, another recipient in the life and health sciences category, brings to the table a wealth of knowledge as a neurology resident at the Morehouse School of Medicine. His essay, “Retooling science: Transforming tools into instruments of equity as a Black physician-scientist,” emphasizes the duality of science as a mechanism for healing or harm. By harnessing his identity and training, Ekuta aims to bridge gaps in health equity, using his platform to advocate for a more inclusive approach in medical science. His reflections speak to the heart of the challenges that many underrepresented groups face within the medical field, resonating with those who seek to create positive change in health care access and representation.

Kenna Gloria Agbugba, awarded in the category of physical, earth, and environmental, or data sciences, is making strides in artificial intelligence and educational tools. In her essay—“Bridging worlds: A STEM journey from Nigeria to the U.S. and back”—Agbugba shares her vision for leveraging AI technology to enhance educational outcomes in her home country. As a computer science undergraduate, her initiatives have already led to the creation of AI-driven prototypes that aid literacy in American classrooms. Agbugba’s work not only encapsulates the essence of innovation in education but also highlights the importance of cross-cultural exchange in scientific progress.

Nyasha Milanzi, the second honoree in the physical, earth, and environmental, or data sciences category, illustrates the intersection of engineering and social justice. Milanzi’s background as an electrical engineer from Ashesi University in Ghana fuels her commitment to developing sustainable technologies that address pressing public health challenges. Her essay, “Inspiring the next generation of engineers and scientists to be champions of equitable change,” captures her determination to uplift vulnerable communities through innovative solutions that prioritize their needs and challenges. Her work underscores the significance of local context in scientific research and the creation of equitable technological advancements.

The Rising Black Scientists Awards not only celebrates individual achievements but also illuminates the pathways that foster diversity in science. Each winner’s narrative reflects a shared commitment to community engagement and the desire to use their scientific endeavors as a platform for broader societal change. By providing opportunities for such talented individuals, the Future of Science initiative can inspire the next generation of researchers and innovators to dream bigger and work harder toward embodying equitable practices in their fields.

Moreover, the awards have seen extraordinary participation, with hundreds of applicants showcasing the vast talent housed within the underrepresented communities of scientists. This year’s competition illustrates the potential for far-reaching impact when diverse voices are given room to contribute to the discourse of science and innovation. The promise of these individuals can lead to transformative changes not only in scientific research but also in the cultural perceptions surrounding science as a whole.

In recognition of the outstanding submissions that did not win the award, four honorable mentions have also been highlighted, emphasizing the wealth of talent in the applicant pool. These individuals represent various paths in their scientific careers, reflecting the openness and inclusivity of the awards program. Their essays, set to be published in the journal iScience, reveal the multiplicity of narratives that enrich scientific discourse and celebrate diversity within the academic landscape.

The support provided by the Elsevier Foundation and Cell Signaling Technology showcases the importance of collaboration between organizations and the scientific community. Their contributions enhance the visibility of emerging scientists while fostering a culture of mentorship and motivation, which is crucial for nurturing future leaders in research. The awards serve as a pivotal reminder of the value found in uplifting Black scientists, promoting pathways to equity within the scientific establishment.

With initiatives like the Rising Black Scientists Awards, we continue to witness a significant shift in the scientific landscape, one that promotes diversity and inclusion while advancing the pursuit of scientific excellence. The stories of these young scientists resonate deeply within the broader narrative of science, pushing forward a movement that champions equality, representation, and the essential nature of every researcher’s voice.

The commitment to support early-career scientists, particularly those from marginalized backgrounds, provides new opportunities for exploration and representation in the sciences. As the scientific community moves forward, these efforts not only elevate individual voices but also contribute to a more comprehensive understanding of science as a collective endeavor. The future of research is in the hands of those who dare to innovate, inspire, and instigate change—the very essence captured by these awards.

As we celebrate the accomplishments of such talented individuals, we look forward to witnessing their future contributions to science and society. Each winner signifies what can be achieved when ambition meets opportunity, and through their journeys, they will undoubtedly inspire countless others to follow suit.

Their collective work highlights the need for continued investment in diverse scientific talent. As we stand at the threshold of a new era in research, let us carry forth the spirit of connection and collaboration, ensuring that every scientist has the opportunity to share their story and make their mark on the world.

By fostering diversity in the scientific community, we pave the way for a future rich with innovation, ideas, and insights that reflect the full spectrum of human experience.

Subject of Research: Recognition of emerging Black scientists and their contributions to various scientific fields.
Article Title: Celebrating Diversity: The 5th Annual Rising Black Scientists Awards
News Publication Date: October 2023
Web References: Cell Press
References: Elsevier Foundation
Image Credits: Cell Press

Keywords

Rising Black Scientists, Diversity in Science, Inclusion, Early Career Scientists, Scientific Equity