I obtained my undergraduate degree in Electrical Engineering from the University of British Columbia. After obtaining my PhD at MIT, I joined the Langer Lab at MIT for my postdoctoral training. I am the founder and CEO of Seron Electronics.

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Email: sm[dot][my family name][at]gmail[dot]com
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Latest Posts
Latest Publications
Wireless On-Demand Drug Delivery

Seyed M. Mirvakili & Robert Langer

Wireless on-demand drug delivery systems exploit exogenous stimuli—acoustic waves, electric fields, magnetic fields and electromagnetic radiation—to trigger drug carriers. The approach allows drugs to be delivered with controlled release profiles and minimal off-target effects. Recent advances in electronics and materials engineering have led to the development of sophisticated systems designed for specific applications. Here we review the development of wireless on-demand drug delivery systems. We examine the working mechanisms, applications, advantages and limitations of systems that are triggered by electric fields, magnetic fields or electromagnetic radiation. We also provide design guidelines for the development of such systems, including key metrics for evaluating the practicality of different smart drug delivery systems.

More information: https://www.nature.com/articles/s41928-021-00614-9

Date: 4 Oct 2021

Polymer Nanocomposite Microactuators for On-Demand Chemical Release via High-Frequency Magnetic Field Excitation

Seyed M Mirvakili, Quynh P Ngo, Robert Langer

When heated, the long chains of some polymers become more mobile. This increase in mobility expands the void space between the chains. We can use this property to make a “molecular switch” or a “micro/nano actuator” out of these polymers. Now, if we infiltrate these polymers with some macromolecules of interest and magnetic nanoparticles, when exciting them with high-frequency magnetic fields, the generated heat escalates the diffusion rate. Thus, enabling us to control the release of the macromolecules on demand!

For the purpose of illustration, PL and GA are shown in distinct colors with 50:50 length ratio. In reality, it is one long chain with the PL and GA distributed homogeneously along the length (as discussed in the paper).

More information: https://pubs.acs.org/doi/abs/10.1021/acs.nanolett.0c00648

Date: 9 June 2020

Magnetically Induced Thermal Pneumatic Artificial Muscles (MITPAM).

Seyed M Mirvakili, Douglas Sim, Ian W Hunter, Robert Langer

Pneumatic actuators require a source of pressure for operation. This pressure is often provided by bulky and pricey peripherals (compressors, valves, gas tanks, etc.). While working on a different project, through serendipity, I realized my approach could address the mentioned challenge associated with pneumatic actuators! We reduced the cost of the device from >$1000 to less than $60, which also makes soft robots and other pneumatic-based actuators portable and untethered!

More information: https://robotics.sciencemag.org/content/5/41/eaaz4239

Date: 15 April 2020

Actuation of Untethered Pneumatic Artificial Muscles and Soft Robots Using Magnetically Induced Liquid-to-gas Phase Transitions.
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