1 min readScience & Engineering

Intriguing innovation of 2025

From microscopic breakthroughs in quantum science to a telescope designed to reveal secrets of the universe, explore science and engineering shaping future technologies, treatments, and ideas.

Image of a milli-spinner device that is used to remove blood clots.
The magnetic milli-spinner, a tiny robot that moves through blood vessels with imaging-guided robotic control. | Andrew Brodhead

Milli-spinner

A close-up image of the milli-spinner

Andrew Brodhead

A tiny hollow tube with fins and slits, the milli-spinner rotates to shrink and suction blood clots without rupturing them. This device could significantly improve success rates in treating strokes, heart attacks, pulmonary embolisms, and other clot-related diseases.

Evo 2

Brian Hie at laptop, looking at image of genetic code

Andrew Brodhead

Trained on data that includes all known living species – and a few extinct ones – the AI tool 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.

Twisted-light qubits

A person holds the new nanoscale optical device that works at room temperature.

Antony Georgiadis

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.

Vera C. Rubin Observatory

A long exposure shot of Rubin Observatory at night.

Hernan Stockebrand

A bold early investment helped bring the NSF–DOE Vera C. Rubin Observatory from a risky idea to a powerful new telescope. Its surveys of the southern sky could transform astronomy by capturing an unprecedented, dynamic view of the universe.

Moiré materials research

Image of moiré materials, which are known for their unusual rotation-based patterns.

Fawn Hallenbeck

Researchers used ultrafast science to see how light twists atomic layers in moiré materials, which are known for their unusual rotation-based patterns. Studying this light-triggered twisting – at the superfast and atomic levels – could lead to advances in superconductivity, magnetism, and quantum electronics.

AI earthquake discovery

Satellite imagery of earthquakes that occurred in the Pozzuoli-Campi Flegrei region.

Xing Tan

A new AI model that revealed thousands of previously undetected earthquakes and hidden faults beneath Italy could improve monitoring of earthquake risk and volcanic unrest.

Wastewater filtration beads

Image of porous beads in wastewater to remove contamination.

Eric Appel lab

Porous beads acting like a coffee filter can remove contaminants from wastewater while recovering valuable products, like ammonia for fertilizer. This approach could make water treatment cheaper, more efficient, and even profitable.

Smoke-sensing network

The SMesh team conduct field testing of the sensors.

Philipe Roberge

Stanford Radio Club students helped researchers customize smoke sensors to enhance air quality monitoring during prescribed burns at Jasper Ridge Biological Preserve ('Ootchamin 'Ooyakma). This work could help fire managers optimize prescribed burns and increase knowledge about the effects on nearby communities.

Corn root research

Corn roots growing in a custom-designed assay to measure root branching responses to moisture, a phenomenon known as hydropatterning.

LiPo Ching

As climate change intensifies droughts, researchers have identified a potential way to improve corn resilience, finding that U.S. varieties differ widely in their water-seeking ability and uncovering a plant hormone that guides roots toward water.

Electro-LEV

Image of an Electro-LEV levitating cells.

Courtesy Durmus Lab

The Electro-LEV sorts cells by levitating them. The system could enhance cancer research and even guide microrobots. (Discover more 2025 innovations from the School of Medicine.)

Pix4D landscape modeling

A 3D landscape model generated by Pix4D photogrammetry software.

Courtesy Trevor Hébert

Pix4D photogrammetry software combines drone altitude, GPS coordinates, and camera lens characteristics to generate 3D landscape models with accurate distance and compass directions. Researchers at Jasper Ridge are using this and other innovations to study landscape changes and ecological recovery.

Writers

Cassidy Beach

Taylor Kubota

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