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Biomaterials and Bio-interfaces

an illustration of a hand putting something into a petri dish with a pipette

Nanotechnology is shaping the practice of medicine, promising advances of unprecedented scope. 

It is highly likely that many chronic diseases now considered incurable — including several types of cancer — will ultimately yield to molecular medicine. Innovative diagnostic procedures will allow physicians to detect anomalies at the cellular level, greatly enhancing the likelihood of desirable treatment outcomes.  New nanomaterials and biomaterials ultimately will result in sophisticated prosthetic devices, even synthetic or bioengineered organs. The Department of Materials Science and Engineering is working with allied departments to accelerate the development and deployment of these materials.

 

Nanoscale ‘stealth’ probe slides into cell walls seamlessly. | Melosh Group

Stanford engineers have created a nanoscale probe that can implant in a cell wall without damaging the wall. The probe could allow researchers to listen in on electrical signals within the cell. That could lead to a better understanding of how cells communicate or how a cell responds to medication. The probe could also provide a better way of attaching neural prosthetics and with modification, might be an avenue for inserting medication inside a cell. 

Stanford-led research team aims for rapid detection of radiation dose | Wang Group

Researchers think blood proteins may hold key to developing instruments for use by first-responders, labs in the event of nuclear incidents.

Stanford researchers’ magnetic nanotags spot cancer in mice earlier than current methods | Wang Group

Improved magnetic-nano sensor chips are up to 1,000 times more sensitive than current methods of cancer detection — and can scan any bodily fluid with high accuracy and search for up to 64 cancer-associated proteins simultaneously.