Learning and Growing Together

Learning and Growing Together

The Heart of Stanford’s Educational Programs Team

Renowned for its exceptional researchers, physicians, and professors, the Stanford Department of Medicine equally values the skilled staff who keep the organization running smoothly. These dedicated professionals are the driving force behind countless administrative operations across Stanford campuses.

One group central to the department’s functioning is the Educational Programs team, which is responsible for the administrative operations of postgraduate training programs and initiatives. Drawing from diverse experiences, including roles as a gas station attendant in Finland and a behavioral interventionist, the team shares a collective philosophy: Continuous learning is essential for professional growth and development.

To understand the dynamics of the Educational Programs team, staff members were asked, “In what ways do you believe a culture of continuous learning enhances collaboration and teamwork?” Their responses revealed a community rooted in support and belonging. Fellowship Program Coordinator Jessica Chen notes, “This flow of knowledge fosters open communication and makes everyone feel invested in each other’s growth, leading to more effective collaboration.”

Residency Program Manager Audrey Holmes reinforces this theme, sharing, “A culture of continuous learning creates the environment where people are growing, stretching, and becoming more of who they were meant to be. And when people feel like they’re becoming better versions of themselves, they show up differently: with more humility, more curiosity, and more generosity toward each other.”

The Educational Programs Team united for their 2025 Spring Retreat. Back row, from left: Leslie, Tiffany, Johanna, Estuardo, and Anthony. Middle row, from left: Audrey, Karina, Holly, Michelle, Alex, and Huy. Front row, from left: Luis, Minh-Lan, Jasmine, Jessica, Cayla, and Denise.

Director of the Educational Programs Office Karina Delgado-Carrasco remarks, “Stanford offers a variety of programs and initiatives designed to help staff enhance their skills and their careers.” The resources available at both the university and departmental levels support the Educational Programs team in consistently acquiring new knowledge in their fields and sharing valuable insights with their colleagues.

As the team looks to the future, many members are eager to advance their professional development, with aspirations ranging from obtaining an MBA to stepping into leadership roles. The culture of growth and collaboration within the Educational Programs team not only supports these ambitions but also motivates all members to achieve them. In challenging times, their strong sense of community fosters stability and belonging, serving as a solid foundation that will drive their success and enrich the Department of Medicine. 

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Bridging the Gap

Bridging the Gap

How Katherine Ward Is Revolutionizing Care for Geriatric Patients

Caring for geriatric patients can feel like building a house of cards. If one part starts to wobble, the whole thing can come crashing down. For instance, treatment for heart failure can trigger kidney problems, which can trigger a domino effect where the patient loses ground fast, often requiring an exhausting trip to the hospital. But with the siloing of medicine, a different specialist may be responsible for each card (e.g., heart, kidneys, or other organs), without anyone tasked with keeping the house from toppling over. 

When Katherine T. Ward, MD, a geriatrician with Stanford Senior Care and clinical professor of primary care and population health, came to Stanford to head up geriatrics, keeping those houses standing was a top priority. She is accomplishing this via dedicated geriatricians who follow patients from hospital admissions through to skilled nursing facilities (SNFs) and out into the community. Closer follow-up means better care and fewer hospital admissions, so patients can spend more time at home or in rehabilitative settings, living their best lives.

Katherine T. Ward, MD, a geriatrics specialist, is spearheading the intensivist program, for ICU physicians, at Stanford.

Marcia Marshall of San Mateo, California, credits Ward with enabling her husband, Harry, suffering from Parkinson’s disease and other health issues, to “die with dignity.” She explained that “when I reached out to her, I heard from her immediately. She always said, ‘I’m coming by.’ I’m 79 years old, and the last time I had a doctor come to the house, I was a child. I didn’t know doctors still did that. Harry was very fond of her, as am I.”

Prior to Ward’s arrival at Stanford, community-based private practice doctors took charge of care for their patients in SNFs. These facilities take on the most challenging patients to free up hospital beds for those who require a higher level of acute care and avoid the risks inherent in sending patients back to the community before they are ready. SNFs care for some of the most complex cases in the healthcare system, including elderly patients with multiple comorbidities, transplant recipients, and those who have recently undergone surgery for hip fracture. 

“For patients, better communication means better long-term care planning and often reduced hospital readmissions. For caregivers and their families, the SNFist approach offers much-needed support during an extremely stressful time.”

But SNFs acted like information vacuums, with little or no communication between the SNF and the discharging hospital or the patient’s primary care physician. SNFs did not use Stanford’s electronic health record (EHR) system, so established routes of communication were lacking. “So much information is lost between transitions,” says Ward. Moreover, patients in SNFs are mandated to be seen by a physician only once a month, which may not be frequent enough to nip problems in the bud and prevent avoidable hospital readmissions.

Ward solved the problem by appointing geriatrics-trained physicians known as SNFists. Now, after hospital discharge and admission to an SNF, patients are assigned to an SNFist, who oversees care in the SNF, visiting them in the facility about twice a week. “When the patient is ready to be discharged and go back home, the Stanford SNFist contacts the patient’s primary care physician and gives them [the information and support they need to care for the patient in the community]. We are all [inputting patients’ health information] in Stanford’s [EHR], so there is full transparency about the patient over the continuum of time,” she says.

Katherine T. Ward, MD, chatting with a patient.

For patients, better communication means better long-term care planning and often reduced hospital readmissions. For caregivers and their families, the SNFist approach offers much-needed support during an extremely stressful time. 

Before connecting with Ward, Marshall says, there was an “endless cycle” of nursing homes, hospitalizations, and discharges home for her husband, a pattern that degenerated until he came under Ward’s care. “She was absolutely outstanding, and Stanford was outstanding,” says Marshall. “Dr. Ward had a treatment plan for Harry, and her frequent visits to Harry in [the SNF] ensured that her plan was being followed. Without her presence and oversight, little, if any, of that would have been followed. The level of his care was absolutely better because of her oversight and presence.”

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Sepsis Moves Fast

Sepsis Moves Fast

A New Test Moves Faster

Imagine waking up with what feels like the flu, and within hours, your body is shutting down. That’s sepsis. It kills more Americans every year than breast cancer, prostate cancer, and stroke combined. And it can happen to anyone, at any age.

What if a single blood test could tell your doctors — within 30 minutes — whether you’re on the brink of life-threatening organ failure or can safely go home? That test now exists. It’s called TriVerity™, and Stanford physicians are at the forefront in using it to save lives, spare unnecessary hospital stays, and treat patients faster and with greater precision than ever before.

Changing the Rules in the ER

In January 2025, the FDA cleared TriVerity for hospital use. Unlike traditional tests that can take hours or days, TriVerity measures a patient’s immune response directly from whole blood and produces three key scores:

  1. Bacterial infection likelihood
  2. Viral infection likelihood
  3. Illness Severity Score

Khatri leads conversations that connect data science, clinical care, and real-world impact in infectious disease research.

While infection scores help clinicians quickly identify the presence and type of infection, the Illness Severity Score estimates a patient’s risk of needing intensive care within seven days, as well as likelihood of organ failure, intensive care unit (ICU) admission, or death. In practice, it’s a fast, objective read on trajectory: Is this person getting worse or likely to remain stable?

For one recent patient who triggered a sepsis alert, TriVerity’s results showed they were not on a dangerous trajectory. Instead of an unnecessary hospital stay, they went home safely, saving cost, avoiding risk, and preserving hospital resources.

“This is exactly the kind of clinical decision point TriVerity is meant to clarify,” says Purvesh Khatri, PhD, professor of medicine at Stanford and co-creator of the test. “It’s not about replacing clinical judgment, but adding a layer of precision that helps physicians act with more certainty.”

“Having rapid diagnostic and prognostic data can drive earlier action… and that means more lives saved.” – Purvesh Khatri, PhD

The Stanford-Led Research Behind It

To develop the test, Khatri’s team analyzed more than 12,000 publicly available blood samples, identifying a unique immune dysregulation signature — a pattern that signals when the body’s inflammatory response is tipping from protective to harmful.

To make sure this signal was real and reliable, the team tested it against data from the Framingham Heart Study, a famous decades-long project that has tracked the health of thousands of people and shaped much of what we know about heart disease. Even when classic risks like smoking, high cholesterol, and high blood pressure were factored in, this immune signal still accurately predicted which people were more likely to die early.

That same immune warning now powers TriVerity’s Illness Severity Score. For emergency room (ER) doctors, it means a quick, objective check on whether a patient is in real danger or stable enough to safely go home — information that can save a life.

At Stanford, Purvesh Khatri, PhD, collaborates with colleagues to translate complex data into tools like TriVerity, now reshaping how clinicians manage sepsis.

Why It Matters for Everyone

For decades, more than 100 clinical trials have failed to uncover a one-size-fits-all treatment for sepsis. That’s because every patient’s immune system reacts differently. TriVerity helps tailor care by showing when aggressive treatment is truly needed and when it could actually cause more harm.

It also has the potential to:

  • Guide enrollment in targeted clinical trials to test efficacy of different drugs
  • Reduce unnecessary antibiotic use
  • Prevent ICU overcrowding during public health crises, such as the COVID-19 pandemic

Looking Ahead

Khatri envisions a future where immune-signature precision diagnostics move beyond the hospital, empowering earlier recognition and intervention for serious infections. “Having rapid diagnostic and prognostic data can drive earlier action,” he says, “and that means more lives saved.”

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When a Common Virus Becomes a Clue

When a Common Virus Becomes a Clue

The Link Between Epstein-Barr and Multiple Sclerosis

Epstein-Barr virus (EBV), best known for causing mononucleosis (“mono”), infects nearly everyone — about 95% of adults worldwide. For most people who get the virus, they recover without consequence. But for a small number of people, an EBV infection may set the stage for developing multiple sclerosis (MS), a debilitating disease in which the immune system attacks the brain and spinal cord.

A recent study, led by Neda Sattarnezhad Oskouei, MD, and Tobias Lanz, MD, from Stanford Medicine’s Division of Immunology and Rheumatology, brought together collaborators from across Stanford University and from the Department of Clinical Neuroscience and the Center for Molecular Medicine at the Karolinska Institutet and Karolinska University Hospital in Stockholm, Sweden.

They found that a protein in EBV, called EBNA1, looks very similar to a brain protein named GlialCAM, which helps protect nerve fibers. The immune system, trying to fight EBV, can mistake GlialCAM for the virus and attack it by accident — damaging the protective coating around nerves and causing MS symptoms.

Genetics makes this scenario more likely. The study found that people with a specific gene, HLA-DRB1*15:01, were far more likely to have these mistaken antibodies. Those with the gene and high antibody levels were up to nine times more likely to develop MS. These findings could help pinpoint who is most at risk and guide future work on vaccines or antiviral treatments.

Watch MedStory with Rebecca Handler, manager of SciComms Strategy in the Department of Medicine.

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Revolutionizing Heart Surgery

Revolutionizing Heart Surgery

Augmented Reality Takes Center Stage

In a groundbreaking leap for cardiac care, Stanford’s Division of Cardiovascular Medicine is harnessing the power of augmented reality (AR) to enhance surgical procedures. This innovative approach not only improves the precision of operations but also transforms the way surgeons interact with complex data during critical moments.

During a recent atrial fibrillation ablation procedure, surgeons utilized the Apple Vision Pro headset, allowing them to visualize a 3D model of the heart in real time. Clinical Associate Professor Alexander C. Perino, MD, emphasizes the seamless integration of technology into patient care. He says, “This technology acts as a unique monitor, allowing us to manipulate and interact with data [through simple hand gestures and voice commands] in ways we never could before. I can scale images to any size, move them around the room, and access vital information without the distraction of multiple physical screens.”

“What if we could actually just take the three-dimensional model and put it in the patient where the heart actually is?” – Albert ‘A.J.’ Rogers

Fred Hizal, PhD, manager of innovation and design in Biomedical Engineering, highlights the potential of this technology, stating, “This is sort of a free canvas that we can design to project live video images [such as a 3D mapping of a heart] onto the screen.” This capability allows for a more natural interaction with the surgical environment, enhancing both the surgeon’s focus and the patient’s safety.

Instructor Albert “A.J.” Rogers, MD, notes the intuitive nature of this technology, asking, “What if we could actually just take the three-dimensional model and put it in the patient where the heart actually is?” This vision is becoming a reality, as AR allows for a more immersive and efficient experience for healthcare providers as they perform lifesaving procedures.

As the medical field continues to evolve, Stanford Cardiovascular Medicine is at the forefront, exploring how AR can transform surgical practices and improve physicians’ access to vital medical information at crucial moments.

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Bright Project Shines

Bright Project Shines

How Stanford Computer Science Students Used AI for Research and Care

Talk about killing two birds with one stone! Stanford’s Division of Blood and Marrow Transplantation and Cellular Therapy has figured out how to save thousands of work hours annually, all while giving undergrads in computer science an unforgettable learning experience.

Cancer registries play a foundational role in the advancement of medicine by facilitating the identification, understanding, treatment, and prevention of disease. But building and maintaining these databases is a massive endeavor. No one understands this better than the bone marrow transplant community, where participation in the Center for International Blood & Marrow Transplant Research (CIBMTR) registry is mandatory. Stanford alone dedicates a dozen full-time employees and about 23,000 work hours annually to meeting their CIBMTR registry requirements and maintaining their in-house database.

Vanessa Kennedy led an innovative project leveraging large language models and AI to help automate population of the Center for International Blood & Marrow Transplant Research (CIBMTR) registry.

The effort is worthwhile. “Nearly 100 publications have come up from [the CIBMTR registry], nearly all giant clinical trial ideas,” says Vanessa Kennedy, MD, assistant professor of blood and marrow transplantation and cellular therapy at Stanford. Living up to the Stanford tradition of innovation and multidisciplinary cooperation, Kennedy and her team asked, How can we leverage our expertise in information technology (IT) to do this smarter?

Through the Business and Research Innovations to Excellence (BRITE) program, Kennedy and colleagues enlisted undergraduate computer science students to come up with an artificial intelligence (AI) large language model solution that extracts data directly from the electronic medical record, including patient notes, to populate the Stanford database and meet CIBMTR requirements.

To say these students met their mandate is an understatement. At the 2025 Transplantion and Cellular Therapy Annual Meeting in Honolulu, their presentation won an award for best abstract. The transplant community understands what this kind of innovation could mean for the future. Facilitating the collection of crucial information that can guide care and direct innovative therapies with fewer work hours means faster access to more data and more resources to divert elsewhere.

“We have the right computer science students. We have the right amount of data. We have an amazing IT team that found a way to be completely HIPAA compliant and respect patient privacy. I think working in a place that doesn’t immediately shoot down innovative ideas is huge.” – Vanessa Kennedy, MD

This “could have only happened at Stanford,” says Kennedy. “We have the right computer science students. We have the right amount of data. We have an amazing IT team [that found] a way to [be] completely HIPAA compliant and respect patient privacy. I think working in a place that doesn’t immediately shoot down [innovative] ideas is huge.”

For their part, the students are eager to tackle a real-world problem rather than hypothetical issues limited to the classroom. Stanford student Edwin Pua worked on the BRITE project as part of his undergraduate computer science degree, describing it as “a life-changing experience” that offered a unique opportunity to “apply what I learned in university to help change the lives of real people. That meant a lot to me! Our North Star was really asking ourselves, How can we streamline data retrieval so that clinicians can focus on what really matters: caring for patients? I’m grateful to have been a part of something so meaningful.”

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