The Biophysical Society has announced that Kandice Tanner, a researcher at the National Cancer Institute, part of the National Institutes of Health in the United States, will receive the 2027 Michael and Kate Bárány Award. The honor recognizes an outstanding contribution to biophysics by a scientist who has not yet achieved the rank of full professor or an equivalent senior position at the time of nomination. Tanner will be formally celebrated at the Society’s 71st Annual Meeting, scheduled to take place in Philadelphia, Pennsylvania, from February 20 to 24, 2027, where she will join a distinguished lineage of early- and mid-career investigators whose work has reshaped the understanding of physical processes in living systems.
The award citation highlights Tanner’s discoveries elucidating the biophysical determinants of organ-specific metastasis in a living animal. That phrasing captures a question that has long frustrated cancer researchers: why do tumor cells shed from a primary growth settle and flourish in some organs while failing in others? The prevailing view in oncology has shifted over recent decades from a purely biochemical picture, in which chemical signals and genetic mutations govern the spread of cancer, toward a more integrated framework in which physical forces, tissue architecture, and mechanical properties of the cellular microenvironment play decisive roles. Tanner’s work sits squarely at the heart of this shift, and the Biophysical Society’s decision to honor it underscores how central physics has become to modern cancer research.
Metastasis remains the deadliest phase of cancer, responsible for the majority of cancer-related deaths worldwide. For a tumor cell to seed a new colony in a distant organ, it must complete an extraordinary sequence of steps: detach from the primary tumor, invade surrounding tissue, enter the circulation or lymphatic system, survive the punishing shear stresses of blood flow, arrest in a small vessel of a distant organ, exit into the new tissue, and finally adapt to an unfamiliar microenvironment well enough to proliferate. Each of these steps imposes distinct physical demands on the cell, from squeezing through narrow gaps to withstanding fluid forces to remodeling the stiffness of the tissue around it. Understanding which of these physical hurdles determine success or failure is essential for predicting and ultimately preventing deadly spread.
Organ-specific metastasis adds another layer of complexity. Clinicians have observed for more than a century that different cancers display characteristic patterns of spread: some tumors preferentially colonize the liver, others the lung, bone, or brain. Stephen Paget’s celebrated seed and soil hypothesis, proposed in 1889, framed the problem in agricultural terms, suggesting that tumor cells, like seeds, can only grow in congenial soil. Modern research has enriched that metaphor with molecular detail, identifying chemokine signaling, extracellular matrix composition, and organ-specific stromal cells as contributors to the soil’s fertility. What has been harder to capture is the physical dimension of the soil: how the stiffness, topology, fluid dynamics, and mechanical stresses of a given organ filter and shape arriving tumor cells. Studying these factors requires tools that can probe living tissue at multiple scales simultaneously, precisely the kind of methodological territory in which biophysics excels.
Tanner’s recognition by the Biophysical Society reflects the value of approaching these questions with the quantitative rigor of a physicist. Investigating biophysical determinants in a living animal, rather than in simplified cell culture dishes, is a demanding methodological choice. Cell culture allows exquisite control and measurement, but it strips away the fluid shear of the bloodstream, the three-dimensional architecture of organs, the immune system, and the mechanical heterogeneity of real tissue. Animal models preserve that complexity but make precise physical measurement far more difficult. Bridging the two requires innovative imaging strategies, engineered model systems that recapitulate key features of organs, and analytical frameworks capable of linking single-cell behavior to tissue-level outcomes. Researchers who accomplish this bridging are rare, and the award’s emphasis on work performed in a living animal signals how highly the community values that integration.
The significance of this line of research extends well beyond fundamental understanding. If the physical properties of an organ microenvironment help determine whether disseminated tumor cells take hold, then those properties become potential therapeutic targets. Approaches that modify tissue stiffness, interfere with mechanotransduction signaling pathways by which cells sense and respond to mechanical cues, or alter the physical interactions between tumor cells and their surroundings could complement existing treatments aimed at genetic and biochemical vulnerabilities. Moreover, physical measurements of the microenvironment might one day serve as predictive biomarkers, helping clinicians assess a patient’s risk of metastasis to particular organs and tailor surveillance and intervention accordingly. Work of the kind Tanner has pursued lays the groundwork for such translational possibilities by identifying which physical variables matter most.
Bárány Award recipients are chosen for outstanding contributions to biophysics at a career stage before senior rank, making the prize a marker of exceptional early trajectory. The award honors the legacies of Michael and Kate Bárány, whose own contributions to muscle biophysics exemplified the discipline’s tradition of explaining biological function through physical principles. In recognizing Tanner, the Society continues that tradition while also highlighting the expanding scope of biophysics itself. Once concentrated on problems such as protein structure, membrane dynamics, and muscle contraction, the field now encompasses the mechanics of cancer, the physics of morphogenesis, and the quantitative analysis of intact organisms. The Society, founded in 1958, describes its mission as leading a global community working at the interface of the physical and life sciences across all levels of complexity, and its roughly 6,000 members teach and conduct research in universities, laboratories, government agencies, and industry around the world.
The announcement also offered a vivid portrait of Tanner as a scientist. BPS President Karen Fleming of Johns Hopkins University described her as an innovative thinker and a fearless experimentalist, adding that Tanner has established herself as a world leader in the research community that investigates the impact of physical properties on complex biological processes within tissue and within intact organisms. The characterization is notable for its emphasis on fearlessness. Experiments that probe physical forces inside living animals demand technical ingenuity and a tolerance for systems that resist the tidy controls of the physics laboratory. The praise from the Society’s president suggests that Tanner’s willingness to tackle biology at its most complicated and least controllable has been central to her standing in the field.
The February 2027 meeting in Philadelphia will bring together thousands of biophysicists for a program spanning molecular, cellular, and organismal scales, and the award lecture that accompanies the Bárány honor will give Tanner a prominent platform to describe her findings to that audience. For the broader cancer research community, the recognition serves as a reminder that the physical sciences are no longer peripheral to oncology. The spread of cancer through the body is, at its core, a problem of cells navigating a physical world: deforming through confined spaces, sensing the rigidity of the ground beneath them, enduring the rush of blood, and remodeling the architecture of the tissues they invade. By illuminating the biophysical determinants of organ-specific metastasis in living animals, Tanner’s work addresses one of the most consequential questions in medicine with the tools of physics, and the 2027 Michael and Kate Bárány Award marks both her achievements and the growing conviction that understanding cancer requires understanding its physics.
Subject of Research: Biophysical mechanisms of organ-specific cancer metastasis recognized by the 2027 Michael and Kate Bárány Award
Article Title: Kandice Tanner to receive 2027 Michael and Kate Bárány Award
Article References: Kandice Tanner to receive 2027 Michael and Kate Bárány Award. (n.d.). Original publication
Image Credits: AI Generated
DOI: Not provided
Keywords: Kandice Tanner, Biophysical Society, Bárány Award, metastasis, biophysics, National Cancer Institute, organ-specific metastasis, tumor microenvironment, mechanobiology, cancer research, living animal models, scientific award
Cite Scienmag News
APA MLA Chicago
Nathaniel Bowman. (September 30, 2026). Biophysicist Kandice Tanner Wins 2027 Bárány Award for Metastasis Discoveries. Scienmag. https://scienmag.com/biophysicist-kandice-tanner-wins-2027-barany-award-for-metastasis-discoveries/
Nathaniel Bowman. “Biophysicist Kandice Tanner Wins 2027 Bárány Award for Metastasis Discoveries.” Scienmag, 30 September 2026, https://scienmag.com/biophysicist-kandice-tanner-wins-2027-barany-award-for-metastasis-discoveries/. Accessed 30 September 2026.
Nathaniel Bowman. “Biophysicist Kandice Tanner Wins 2027 Bárány Award for Metastasis Discoveries.” Scienmag. September 30, 2026. https://scienmag.com/biophysicist-kandice-tanner-wins-2027-barany-award-for-metastasis-discoveries/
Copy citation Download RIS
Tags: 2027 Bárány Award winnersBárány Awardbiophysical determinants of organ-specific metastasisbiophysical insights into tumor cell disseminationBiophysical Societybiophysical Society awardsbiophysicsbiophysics of cancer metastasiscancer researchearly-career cancer research awardsKandice TannerKandice Tanner researchliving animal modelsmechanobiologymetastasismetastasis mechanisms in living systemsNational Cancer InstituteNational Cancer Institute cancer researchorgan-specific metastasisphysical forces in cancer spreadrole of biophysics in oncologyscientific awardtissue architecture and cancer progressiontumor microenvironment
