Stanford University has highlighted several innovations in science and engineering for 2025, spanning quantum science, artificial intelligence, astronomy, environmental monitoring, and agriculture.
One development is the milli-spinner, a small device with fins and slits that rotates to shrink and suction blood clots without rupturing them. According to Stanford, “This device could significantly improve success rates in treating strokes, heart attacks, pulmonary embolisms, and other clot-related diseases.”
Another advancement is Evo 2, an artificial intelligence tool trained on data from all known living species as well as some extinct ones. The university states: “Evo 2 can design DNA and RNA sequences and proteins, and predict how they will function. Evo 2 could help researchers better understand mutations and disease, and develop novel medical treatments.”
In quantum technology, researchers have created a device that uses twisted light to entangle electrons at room temperature rather than requiring supercool environments. As explained by Stanford: “Qubits are the fundamental building blocks of quantum communication and computation. While most quantum systems require supercool environments, this new device uses twisted light to entangle electrons, creating qubits at room temperature.”
The NSF–DOE Vera C. Rubin Observatory is another project benefiting from early investment by Stanford. The observatory aims to survey the southern sky with unprecedented detail. Stanford notes: “Its surveys of the southern sky could transform astronomy by capturing an unprecedented, dynamic view of the universe.”
Other research includes using ultrafast science to observe how light twists atomic layers in moiré materials—structures known for their unique rotation-based patterns—which may lead to progress in superconductivity and quantum electronics.
An AI model developed at Stanford has detected thousands of previously unknown earthquakes and hidden faults beneath Italy. The university reports that this technology “could improve monitoring of earthquake risk and volcanic unrest.”
Stanford’s Eric Appel lab has developed porous beads capable of filtering contaminants from wastewater while recovering valuable products such as ammonia for fertilizer. This method could make water treatment more efficient and cost-effective.
Student members of the Stanford Radio Club collaborated with researchers to customize smoke sensors for air quality monitoring during prescribed burns at Jasper Ridge Biological Preserve (‘Ootchamin ‘Ooyakma). This work aims to assist fire managers in optimizing burns while increasing understanding of their effects on local communities.
In agricultural research related to climate change adaptation, scientists have found significant differences among U.S. corn varieties in their ability to seek water. They also identified a plant hormone that directs roots toward moisture.
Researchers are using Pix4D photogrammetry software at Jasper Ridge to generate three-dimensional landscape models by combining drone altitude data with GPS coordinates and camera lens information.
Finally, the Electro-LEV system sorts cells by levitating them—a technique that could enhance cancer research or guide microrobots.
These projects reflect ongoing efforts at Stanford University to advance technology across multiple fields.
