Shriya Srinivasan

As artificial intelligence rewires every layer of organizational life, the question most senior leaders are quietly asking is not whether to adopt new technology, but how to think differently about the boundary between human capability and machine performance. Shriya Srinivasan doesn’t answer that question from a strategy consulting deck or a technology forecast. She answers it from the operating table, the research lab, and the clinic, where she has spent her career literally rewiring the interface between human biology and engineered systems.

Srinivasan is an Assistant Professor of Bioengineering at the John A. Paulson School of Engineering and Applied Sciences at Harvard University, where she founded and directs the Biohybrid Organs and Neuroprosthetics (BIONICs) Lab. Her research group works at the intersection of surgical design, neural engineering, and bioelectronics, developing technologies that allow the human nervous system to communicate, in real time, with machines. Her core thesis is deceptively simple and strategically profound: most organizations, and most leaders, think about human-machine integration as a procurement or deployment problem. Srinivasan’s research reveals it is fundamentally a communication problem. The gap is in the interface, not the hardware.

Why Most Technology Integrations Fail and What to Do Differently

Srinivasan’s doctoral research at the MIT Media Lab’s Biomechatronics Group confronted a puzzle surrounding corporate AI adoption: despite extraordinary advances in prosthetic technology, fewer than one in ten people with limb loss actually use advanced prosthetic devices. Even though the devices were sophisticated and the engineering was state of the art, the technology failed in how it communicated with the user, and how the user could communicate back. That finding, published in Science Robotics and later in PNAS, reframed a technology problem as a design and communication problem.

In response, Srinivasan worked with surgical and clinical teams at Brigham and Women’s Hospital, where she developed the Agonist-Antagonist Myoneural Interface (AMI), a new surgical paradigm that reconnects muscle pairs during amputation to preserve the brain’s natural proprioceptive signaling. The result was that patients gained not just control over robotic prostheses, but sensation, the ability to feel where their artificial limb was in space, without looking. This work has been translated to clinical practice in dozens of patients, and earned the Lemelson-MIT Student Prize, an award reserved for inventions that move from laboratory insight to measurable human outcome.

For executives overseeing AI implementations that stall after pilot, or digital tools that underperform despite significant investment, Srinivasan draws attention to the integration layer — where value is created or destroyed. Organizations that focus exclusively on what the technology can do, miss the far more consequential design challenge of how humans and systems will actually communicate. It is an argument she has made to audiences far beyond the scientific community, including in her TED talk “New Limbs That Amputees Can Feel,” which introduced these ideas to a global general audience and demonstrated her ability to make technically complex research immediately legible to non-specialist leaders.

Building Human Capability in an Era of Machine Intelligence

A core element of Srinivasan’s work is her research into what the human body and its nervous system can teach us about adaptability. Her lab’s research on the nervous system examines how biological systems learn to integrate new signals, recalibrate in response to feedback, and expand their functional capabilities over time.

Srinivasan’s more recent work extends this framework into the enteric nervous system, the vast and largely unmapped neural network governing the gut. Supported by a Schmidt Science Fellowship that funded her postdoctoral pivot into gastrointestinal neuromodulation, her lab developed the VIBES capsule, a vibrating ingestible bioelectronic stimulator demonstrated in Science Advances to reduce food intake by activating gastric stretch receptors. The research generated coverage from MIT News to the NIH, and it illustrates something executives in any industry can apply: the most impactful breakthroughs come from interrogating the assumptions built into existing systems and redesigning the interface entirely. Awarded the 2026 Alfred P. Sloan Research Fellowship and the 2025 Gilbreth Lectureship from the National Academy of Engineering, signifying the significance of her research within her field.

When conventional approaches fall short, Srinivasan offers Chief Learning Officers and heads of executive development a method for stepping back and examining problems from a different perspective. Her work helps leaders audit the assumptions they’ve built into their decisions, enabling their teams to find creative solutions that often lie outside the standard playbook.

The Interface Between Science, Leadership, and Human Experience

What distinguishes Srinivasan from other scientists who cross into the speaking space is not simply the volume or prestige of her research output, recognized by both the Forbes 30 Under 30 Healthcare list and the MIT Technology Review Innovators Under 35. It is her ability to hold complexity without sacrificing clarity, and to translate research findings into strategic insight without flattening them into platitudes. She is also an accomplished classical dancer. For over two decades she has practiced and performed Bharathanatyam, the ancient south Indian classical dance form, and co-directs the Anubhava Dance Company. In 2024, her Harvard ArtLab residency culminated in a live performance at the Harvard Art Museums in which audiences experienced dance through wearable haptic interfaces, a project subsequently featured in the PBS NOVA series Building Stuff. Her scientific work and her artistic practice are mutually reinforcing, giving her unique positioning. Srinivasan draws on her artistic experience to explain how thinkers and leaders can cultivate creativity to remain at the forefront of their fields and leverage AI intelligently.

This integration of rigor and humanity shapes what executive audiences receive from her on stage. Her TED talk “Integrating Man and Machine to Reinstate a Sense of Feeling” opens with a live Bharathanatyam performance, as a demonstration of how proprioception and movement coordinate in the healthy human system. Senior leaders leave with new mental models and with a heightened intuition for how human systems actually work, and what they require to function well under new demands.

Published alongside peers in Science Translational Medicine and Nature Communications, Srinivasan’s work carries the evidentiary weight that required for high-stakes development contexts. She is an especially valuable voice for Fortune 100 audiences at a moment when the conversation about AI has matured from enthusiasm to implementation, and when the hardest questions shift from what technology can do to what it means to lead organizations while the boundary between human and machine intelligence is actively shifting.

###

Shriya Srinivasan is a biomedical engineer and neuroscientist whose research sits at the frontier of human-machine integration, ans developing technologies that allow the human nervous system to communicate bidirectionally with engineered systems. Her work spans neural interfaces, neuroprosthetics, surgical design, and gastrointestinal neuromodulation, and it has been translated from the laboratory into clinical practice.

Srinivasan is an Assistant Professor of Bioengineering at the John A. Paulson School of Engineering and Applied Sciences at Harvard University, where she founded and directs the Biohybrid Organs and Neuroprosthetics (BIONICs) Lab, with affiliate appointments at the Kempner Institute and the Harvard PhD Program in Neuroscience. She is best known for developing the Agonist-Antagonist Myoneural Interface (AMI), a surgical paradigm that enables amputees to feel and control robotic prostheses with previously unavailable naturalness, and for the Vibrating Ingestible BioElectronic Stimulator (VIBES), which modulates satiety through the gut-brain axis. Across both research streams, her central argument is that the failure point in human-technology integration is almost always communication architecture.

Her research has appeared in Science Robotics, Science Advances, Science Translational Medicine, PNAS, and Nature Communications. She has delivered two TED talks, “New Limbs That Amputees Can Feel” and “Integrating Man and Machine to Reinstate a Sense of Feeling,” and her work has been covered by NPR Science Friday, MIT Technology Review, and the NIH, among others.

Her honors include the 2026 Alfred P. Sloan Research Fellowship, the 2025 Gilbreth Lectureship from the National Academy of Engineering, the Lemelson-MIT Student Prize, and recognition on the Forbes 30 Under 30 Healthcare list and the MIT Technology Review Innovators Under 35. She previously served as a Schmidt Science Fellow and Junior Fellow at the Harvard Society of Fellows. She holds a doctoral degree in Medical Engineering and Medical Physics from the Harvard-MIT Health Sciences and Technology program and an undergraduate degree in Biomedical Engineering from Case Western Reserve University.

Shriya Srinivasan is available to advise your organization via virtual and in-person consulting meetings, interactive workshops and customized keynotes through the exclusive representation of Stern Speakers & Advisors, a division of Stern Strategy Group®.