Internship
Posted on 8/27/2026
Academic research and entrepreneurial institution
$15.25 - $21.33/hr
St. Louis, MO, USA
In Person
Wash U translates academic research into practical technologies and programs that address global challenges. The institution supports scholars through grants and partnerships to move discoveries from the lab into the public sector via entrepreneurship and technology transfer. Unlike many traditional research institutions, Wash U emphasizes a high level of financial transparency and leverages a historical connection to Nobel Laureates to foster a collaborative environment. Its goal is to use these shared visions and research initiatives to create a more equitable future and provide tangible benefits to society.
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Health Insurance
Paid Vacation
401(k) Company Match
Wellness Program
Mental Health Support
Parental Leave
Family Planning Benefits
A painless punch with a microneedle patch could detect kidney disease earlier. Kidney disease is silent in its early stages, progressing without symptoms until the disease is advanced. Researchers in the McKelvey School of Engineering at Washington University in St. Louis, in collaboration with researchers at WashU Medicine and at Texas A&M University, have been developing a minimally invasive method to improve diagnosis in earlier stages. New research from the lab of Srikanth Singamaneni, the Lilyan & E. Lisle Hughes Professor in the Department of Mechanical Engineering & Materials Science, shows the early success of a microneedle patch that can be applied on the skin to quickly and safely capture biomarkers and quantify them accurately. The patch detected early signs of kidney injury and may one day support home or point-of-care monitoring without requiring refrigeration. Results of their research were published online Aug. 5 in Advanced Materials. It is the first study to show that encapsulating biomolecules on microneedles preserved their biological functions. The research team, which includes Yixuan Wang, a doctoral student in Singamaneni's lab, created microneedles coated with a metal-organic framework (MOF) that can sample interstitial fluid in the skin. The microneedles are coated with a material that creates a shell that detects and preserves neutrophil gelatinase-associated lipocalin (NGAL) antibodies, which are an early biomarker of acute kidney injury. The MOF shell preserved the antibodies for up to four weeks at 50 C (122 F) without refrigeration. "This metal-organic framework encapsulation is a simple and highly effective way to create microneedle sensors that are resilient to environmental challenges and provide a scalable path to minimally invasive biosensing for at-home or remote health monitoring," Singamaneni said. NGAL increases in the blood within hours of a kidney injury and is a clinically validated biomarker for kidney damage. However, because it requires drawing blood with a needle and cold-chain logistics, it has not been useful in home-based or resource-limited settings. Previously, Singamaneni and collaborators established another type of microneedle patches that can look for biomarkers of disease. Adapting that low-cost, easy-to-use technology required them to create a biosensor with high sensitivity and a broader range, as well as addressing cold-chain logistics. Wang Y, Liu Y, Debnath A, Li C, Want Z, Kondepati G, Balmoori S, Morrissey JJ, Chen YM, Tian L, Singamaneni S. Metal-Organic Framework-Preserved Thermostable Microneedle Patch for Minimally Invasive Detection and Monitoring of Kidney Dysfunction. Advanced Materials, published online Aug. 5, 2026. DOI: https://doi.org/10.1002/adma.74423 This research was supported by funding from the National Science Foundation (CBET 2224610 and CBET 560 2316285), the National Institutes of Health (R21DK131557A1, R35 GM147568, R01 2DK105056-6 and R56DK138158A1), the Congressionally Directed Medical Research Programs (HT94252310996 and W81XWH-19-1-0320), and VA Merit (I01BX006401A1). Singamaneni and Jeremiah J. Morrissey are the inventors of the plasmonic-fluor technology, which has been licensed by the Office of Technology Management at Washington University in St. Louis.
Lee and Lee honored with prestigious Cogan Award. August 7, 2026 Aaron Y. Lee, MD, the Arthur W. Stickle Distinguished Professor of Ophthalmology and Visual Sciences and head of the John F. Hardesty, MD Department of Ophthalmology & Visual Sciences at WashU Medicine, and Cecilia Lee, MD, the Jane Hardesty Poole Distinguished Professor, have been honored with the Cogan Award in recognition of their impactful contributions to vision science and ophthalmic research. This prestigious award, presented by the Association for Research in Vision and Ophthalmology (ARVO), highlights exceptional work that propels the field forward through innovative methods and collaborative leadership. Their recognition underscores WashU Medicine's leadership in combining clinical excellence, innovative research and collaborative science to address some of the most challenging questions in vision care. Lee and Lee harness large-scale data, machine learning and advanced analytics to elucidate complex patterns in eye disease and vision loss, while also leveraging the eye as a non-invasive window into systemic health - a field known as oculomics. Their research emphasizes equitable access to data and analytic tools, ensuring that discoveries benefit diverse populations and accelerate real-world translational impact.
Which health systems have chief AI officers. Table of contents. As hospitals and health systems further embed AI into healthcare delivery, they are increasingly appointing chief AI officers or equivalent senior executives with dedicated responsibility for AI governance, implementation and oversight, reflecting a broader trend of health systems chief AI officers taking on formalized C-suite roles. Why health systems chief AI officers roles are growing. The growing presence of these roles reflects the industry's recognition that AI may pose risks to patient safety, professional liability and regulatory compliance, and thus warrants cross-functional leadership at the highest levels. Below is a look at healthcare organizations with dedicated AI leadership. Academic medical centers leading with health systems chief AI officers. Ann & Robert H. Lurie Children's Hospital of Chicago named Rajiv Kolagani as its chief data and AI officer. BJC Health System and WashU Medicine in St. Louis appointed two leaders: Philip R.O. Payne, PhD, as the inaugural chief health AI officer of WashU Medicine and BJC, and Deborah O'Dell as chief data & analytics officer at BJC. Major health systems with chief AI officers on the west coast. Cedars-Sinai in Los Angeles appointed Mouneer Odeh as its inaugural chief artificial intelligence officer at the end of 2024. City of Hope in Duarte, Calif., named Nasim Eftekhari system vice president and chief AI and analytics officer. UCLA Health named Paul J. Lukac, MD, as its chief AI officer, while UCSF Health named Sara Murray, MD, as chief health AI officer. UC San Diego Health named Karandeep Singh, MD, as its inaugural chief health artificial intelligence officer, and UCI Health in Orange, Calif., named Deepti Pandita, MD, as its chief medical informatics and AI officer. Kaiser Permanente's approach to AI leadership. Kaiser Permanente in Oakland, Calif., has Daniel Yang, MD, serving as vice president of artificial intelligence and emerging technologies, a title distinct from the "chief AI officer" designation used at many peer organizations. Midwest and southern health systems chief AI officers. Cleveland Clinic appointed Ben Shahshahani, PhD, as its first vice president and chief artificial intelligence officer in August 2024. Mayo Clinic in Rochester, Minn., appointed Micky Tripathi, PhD, as its chief AI implementation officer, while Mayo Clinic Arizona in Phoenix separately named Bhavik Patel, MD, as chief AI officer. Mercy in St. Louis named Byron Yount, PhD, as chief data and artificial intelligence officer and vice president of transformation operations. Additional regional health systems naming AI chiefs. Baptist Health System in Louisville, Ky., named Brett Oliver, MD, as its chief medical information and AI officer. Bon Secours Mercy Health in Cincinnati named Dylan Clark as its chief analytics and artificial intelligence officer. University of Utah Health in Salt Lake City appointed Kensaku Kawamoto, MD, PhD, as its first chief health AI transformation officer. UT Southwestern Medical Center in Dallas named Warren D'Souza, PhD, as its inaugural chief artificial intelligence officer, and VCU Health in Richmond, Va., named Alok Chaudhary as vice president and chief data and artificial intelligence officer. Children's Hospitals and Denver Health's AI Leadership. Children's National Hospital in Washington, D.C., named Alda Mizaku as vice president and chief data and AI officer. Denver Health named Daniel Kortsch, MD, as its associate chief of AI and digital health. Hackensack Meridian Health in Edison, N.J., named David Arnold as its senior vice president and chief AI and data officer. Variation in title and scope across these health systems chief AI officers. Across this list, titles vary meaningfully, from "chief AI officer" to "chief health AI officer" to "vice president of artificial intelligence and emerging technologies," reflecting differing organizational structures and how each health system chooses to position AI leadership relative to existing informatics, data, and analytics functions. What this wave of health systems chief AI officers means going forward. With more than 20 major health systems now represented on this list, spanning academic medical centers, children's hospitals, and regional systems across the country, the appointment of dedicated AI leadership appears to have become a standard organizational response to AI's growing role in clinical and administrative operations. Given the cross-functional nature of these roles, spanning patient safety, professional liability, and regulatory compliance, other health systems without a formally designated AI chief may increasingly feel competitive pressure to establish similar positions. What to watch going forward. As this list continues to grow, with Becker's actively soliciting additional health systems for inclusion, industry observers will likely watch which organizational models, dedicated chief AI officer roles versus AI responsibilities folded into existing chief medical information officer or chief data officer positions, prove most effective at balancing innovation with the governance and compliance demands these executives are tasked with managing. Given how recently many of these appointments occurred, with several dating to only the past one to two years, this health systems chief AI officers trend appears to still be in its early, rapidly evolving phase across the healthcare industry.
WashU announces new academic-industry collaboration with Bristol Myers Squibb. Multiyear program will provide hands-on training at the pharmaceutical company, fund translational neuroscience research at WashU Washington University in St. Louis and Bristol Myers Squibb have formed a multiyear collaboration to foster scientific exchange between academia and industry in the field of neuroscience. Through this agreement, WashU medical and research trainees will have opportunities to work alongside Bristol Myers Squibb teams on select drug development projects. The collaboration builds on a long-standing research relationship aimed at combining WashU's expertise in fundamental and clinical research in neurodegenerative diseases with Bristol Myers Squibb's extensive experience in drug discovery and development. It also will provide unique opportunities for WashU Medicine trainees to gain embedded industry experience. "This partnership represents a powerful model for how academia and industry can work together to advance neuroscience," said Doug E. Frantz, WashU's vice chancellor for innovation and commercialization. "By pairing our strengths in fundamental and clinical neuroscience with Bristol Myers Squibb's deep expertise in drug development, we have an opportunity to accelerate breakthrough discoveries toward meaningful therapies for patients. At the same time, integrating our residents and fellows within Bristol Myers Squibb ensures we are training the next generation of physician-scientists in the full continuum of translational science." Each year, the program will provide funding to support up to three visiting fellows at Bristol Myers Squibb and three translational research programs at WashU in the neurosciences, with the goal of developing potential new therapeutics for neurological, neuromuscular, neuroinflammatory and psychiatric conditions. "This collaboration reinforces our commitment to working together with the goal to advance innovation that can help address significant unmet needs in neurodegenerative and neuropsychiatric diseases," said Peter Paine, head of strategic partnerships for Bristol Myers Squibb. "These conditions represent some of the greatest health challenges of our time, and we look forward to working with WashU to pursue transformational treatments for patients." WashU faculty have long collaborated with Bristol Myers Squibb on specific studies or within larger academia-industry initiatives such as the Neurofilament Light Consortium, a collaboration among WashU Medicine, University College London and several pharmaceutical companies, including Bristol Myers Squibb, to investigate neurodegenerative diseases. The new collaboration creates a formal structure to form and fund research projects in priority areas for both WashU and Bristol Myers Squibb. The goal of the agreement is ultimately to advance the field of neuroscience in ways that lead to improved treatments and patient outcomes. Private-sector partnerships with universities are usually narrow in scope, funding a pre-defined set of projects. In contrast, the high-level joint commitment of this new collaboration focuses on training the next generation of leaders in neuroscience to be proficient in both academic and industry settings. Melanie Roewe, associate vice chancellor of research administration at WashU, said that the mutual enthusiasm was reflected in the speed and ease with which the agreement came together. "This is an elevated relationship, different from most collaborations," said Roewe. "Both sides are invested in finding new and productive ways to work together and continually furthering what this collaboration can achieve." Program participation. Individuals interested in participating in the visiting fellows program or the translational neuroscience research program are encouraged to submit an expression of interest by Sept. 1. For additional information regarding eligibility, participation and the expression-of-interest process, reach out to Mark Van Horn, senior director of business development, Strategic External Projects and Outreach, at [email protected]. About WashU Medicine WashU Medicine is a global leader in academic medicine, including biomedical research, patient care and educational programs with more than 3,000 faculty. Its National Institutes of Health (NIH) research funding portfolio is the second largest among U.S. medical schools and has grown 83% since 2016. Together with institutional investment, WashU Medicine commits well over $1 billion annually to basic and clinical research innovation and training. Its faculty practice is consistently among the top five in the country, with more than 2,000 faculty physicians practicing at 130 locations. WashU Medicine physicians exclusively staff Barnes-Jewish and St. Louis Children's hospitals - the academic hospitals of BJC HealthCare - and Siteman Cancer Center, a partnership between BJC HealthCare and WashU Medicine and the only National Cancer Institute-designated comprehensive cancer center in Missouri. WashU Medicine physicians also treat patients at BJC's community hospitals in its region. With a storied history in MD/PhD training, WashU Medicine recently dedicated $100 million to scholarships and curriculum renewal for its medical students, and is home to top-notch training programs in every medical subspecialty as well as physical therapy, occupational therapy, and audiology and communications sciences.
Global AI movements & new biological pathways. Focus: Aligning Glassbury AI's engineering approach with the massive global computational shift and a newly discovered cellular death mechanism. 1. "The C-BRAIN consortium: what an 'AI biomedical research scientist' means for Glassbury's tech stack" * The Hook: On July 13, 2026, a global coalition of academic centers (led by WashU Medicine) and pharma giants launched C-BRAIN. Its mission? Building open-source AI tools to attack the notorious 99% failure rate of neurodegenerative clinical trials by synthesizing "dark" (unpublished) data and clinical literature. * The Angle: Write an insider piece on how Glassbury AI views this watershed moment. Explain that the era of isolated, proprietary "black box" medical AI is ending. Detail how Glassbury's own pipelines plan to leverage and interface with C-BRAIN's open-source frameworks, establishing Glassbury as an early adopter of standardized, collaborative medical AI. * Why It Matters Now: This is the biggest medical-AI news of the summer. Aligning Glassbury with a major global consortium shows that your team is at the absolute forefront of industry standards.