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Home Science News Chemistry

Rice bioengineer honored as Sloan Research Fellow for pioneering noninvasive brain science methods

February 18, 2026
in Chemistry
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In a remarkable acknowledgment of academic excellence and scientific innovation, Rice University bioengineer Jerzy Szablowski has been awarded the prestigious Alfred P. Sloan Research Fellowship for 2026. This highly competitive fellowship, granted to early-career researchers in the United States and Canada, identifies individuals whose groundbreaking work and visionary approaches predict significant future impacts within their respective scientific domains. Szablowski’s expertise lies at the intersection of chemistry, bioengineering, and neuroscience, driving forward novel methods of noninvasive brain communication that promise revolutionary applications in both diagnosis and therapeutic interventions.

Szablowski’s multifaceted research pursues the challenge of accessing the brain’s complex environment without resorting to invasive techniques. By synthesizing engineered serum markers—molecular probes designed to traverse physiological barriers—his team has developed a technology capable of detecting cellular function deep within elusive tissues such as the brain, spinal cord, and eye. These synthetic markers dynamically respond to neuronal activity, releasing quantifiable signals that enter the bloodstream, thus allowing clinicians to monitor hard-to-reach regions via minimally invasive blood draws.

This technological leap is underscored by its extraordinary sensitivity: Szablowski’s markers can detect signals from as few as twelve neurons. Such precision enables unprecedented neurophysiological insights from peripheral blood samples. Moreover, this approach transcends mere detection; it monitors sustained neuronal activity over time, offering dynamic transcriptomic snapshots that reveal spatially localized gene expression patterns within the brain. These capabilities exemplify Szablowski’s commitment to creating versatile biological platforms capable of expanding both fundamental neuroscience research and clinical diagnostics.

The conceptual framework underpinning this technology integrates synthetic chemistry with neuroengineering principles. The serum markers are engineered for stability, specificity, and functional responsiveness. By interfacing molecular design with bioelectronic sensing methods, the markers effectively report cellular states without perturbing native brain activity—a critical requirement for reliable diagnostics. This interdisciplinary approach, drawing on the synergies between chemical biology, materials science, and cellular neuroscience, challenges traditional paradigms in brain research and represents a significant step toward realizing noninvasive neural interfacing.

Beyond diagnostic innovation, Szablowski’s lab prioritizes the development of novel therapeutic delivery systems, aiming to overcome the formidable obstacle posed by the blood-brain barrier. Delivery methods such as focused ultrasound have emerged as transformative tools, enabling the transient opening of this barrier to facilitate the passage of gene therapies and other biologics. This technology, rapidly advancing from preclinical models to clinical applications, aligns perfectly with the lab’s vision of adaptable and precise intervention strategies for neurological disorders.

Gene therapy, a field advancing at a breathtaking pace, complements these delivery innovations by offering the potential for tailored, long-lasting treatments across a spectrum of brain diseases. Szablowski’s research contributes to this frontier by engineering delivery modalities that enhance targeting precision, minimize off-target effects, and enable regulatory control over therapeutic gene expression. These engineered systems promise to dramatically accelerate the timeline from bench to bedside for therapies addressing complex and currently intractable neurological conditions.

Szablowski’s excitement about the Sloan Fellowship stems from the freedom it affords his lab to pursue bold scientific questions that might otherwise not secure funding through traditional channels. The flexible support encourages risk-taking and iterative development of cutting-edge platforms that could redefine the field of neuroengineering. This recognition not only elevates his personal research trajectory but also amplifies the visibility of the broader bioengineering community working on neural diagnostics and therapeutics.

Since joining Rice University in 2020, Szablowski has embraced the institution’s collaborative ethos, emphasizing the critical role of outstanding graduate and undergraduate researchers in propelling innovation. The lab’s successes in engineering synthetic serum markers and refining gene delivery tools owe much to the talent and dedication of its team. This collaborative environment, combined with access to the Texas Medical Center’s vast clinical network, has fueled rapid progress and fostered translational research efforts that bridge fundamental science and medical application.

The integration with the Texas Medical Center is especially pivotal, offering Szablowski’s lab direct channels for collaborative projects with clinicians specializing in epilepsy, infectious diseases, and neurodegenerative disorders such as Parkinson’s disease. These partnerships facilitate accelerated validation of new technologies in real-world clinical settings, helping to translate laboratory discoveries into improved patient outcomes more efficiently.

The Alfred P. Sloan Research Fellowships have a storied history of identifying transformative scientific leaders since their inception in 1955. Selected through rigorous evaluations by panels of senior scientists, Fellows represent the vanguard of creative, high-impact research. Szablowski’s selection for this honor highlights his role as a pioneer developing nondisruptive technologies capable of monitoring and modulating brain function with precision and minimal invasiveness, promising to reshape the future landscape of neuroengineering.

Cynthia Reinhart-King, Rice’s John W. Cox Chair of Bioengineering and Szablowski’s nominator for the award, emphasized his role as a trailblazer whose paradigm-shifting approaches are redefining neuroengineering’s boundaries. Receiving the Sloan Fellowship not only recognizes Szablowski’s exceptional contributions but also offers vital resources to continue pushing the limits of what is possible in studying and treating complex brain disorders.

As the boundaries between chemistry, biology, and engineering blur, Szablowski’s work exemplifies the transformative potential of interdisciplinary research to tackle the brain’s most intractable mysteries. His vision—to develop robust, scalable technologies that provide rich molecular and functional data via simple blood tests—sets a new standard for how we might revolutionize brain health monitoring and therapeutic development in the years ahead.

Subject of Research: Neuroengineering, bioengineering, noninvasive brain diagnostics, synthetic serum markers, gene therapy delivery, focused ultrasound applications in neurology
Article Title: Rice University’s Jerzy Szablowski Named 2026 Alfred P. Sloan Research Fellow for Pioneering Neuroengineering Innovations
News Publication Date: February 17, 2026
Web References: https://profiles.rice.edu/faculty/jerzy-szablowski | https://sloan.org/fellowships/2026-Fellows
Image Credits: Photo by Jeff Fitlow/Rice University

Keywords

Brain, Transcriptomics, Gene therapy, Ultrasound, Blood brain barrier, Epilepsy, Parkinson’s disease, Infectious diseases

Tags: Alfred P. Sloan Research Fellowship 2026bioengineering in neuroscienceearly-career scientific innovationengineered serum markers for braininterdisciplinary brain science researchminimally invasive brain monitoringmolecular probes crossing physiological barriersneurodiagnostics via blood samplesneuronal activity detection technologynoninvasive brain communication methodsRice University bioengineersynthetic biomarkers for neurophysiology
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