Research
DOIT Lab
https://github.com/DOIT-Lab/DOIT-Public
![](https://sites.tufts.edu/bmeoptics/files/2022/04/jbio201960018-fig-0004-m-1024x638.jpg)
Development of methods to enhance the sensitivity to deep tissue hemodynamics
Coherent hemodynamics spectroscopy
Studying muscle hemodynamics using near-infrared methods
iBIT Lab
Identification and selection of imaging-based markers for treatment prediction
Volumetric photoacoustic radiomics for prediction of treatment response
Image-guided photodynamic treatment of cancer
![](https://sites.tufts.edu/bmeoptics/files/2022/04/OpticWebsite2-1024x596.png)
Multi-parametric imaging for identifying and characterizing placental calcification
![](https://sites.tufts.edu/bmeoptics/files/2022/04/hnc-1024x642.png)
Synthesis of photonanomedicine for treatment of hypoxic head and neck cancer
![](https://sites.tufts.edu/bmeoptics/files/2022/04/LMP-1024x374.png)
Development of liquid-metal nanomedicine for phototheranostics
Application of deep learning to improve image contrast and imaging speed
Development and characterization of compact hand-held 3D transducer for ultrasound and photoacoustic imaging
![](https://sites.tufts.edu/bmeoptics/files/2022/08/Picture1-821x1024.png)
Development and characterization of photoacoustic microscope combined with acoustic radiation force impulse imaging
Nanophotonics Lab
![](https://sites.tufts.edu/bmeoptics/files/2022/04/mohantynanophotonicslab.jpg)
Development of nanophotonic, or chip-scale optical, devices for 3D biological stimulation, imaging, and sensing for wearable and implantable neuroscience and biomedical applications
ODDET Lab
![](https://sites.tufts.edu/bmeoptics/files/2022/03/OP22-1000x600-Optical-Eng-1.jpg)
Development of novel optical biomarkers for the non-invasive detection of cervical precancer
![](https://sites.tufts.edu/bmeoptics/files/2022/04/IVFC-Diagram_112221.png)
Monitoring of circulating cells in vivo or within microfluidic devices using flow cytometry
![](https://sites.tufts.edu/bmeoptics/files/2022/04/TBI.png)
Development of novel optical biomarkers for traumatic brain injury
![](https://sites.tufts.edu/bmeoptics/files/2022/04/getImage.jpg)
Detection of peritoneal cancer metastasis using polarized enhanced laparoscopy
Silklab
![](https://sites.tufts.edu/bmeoptics/files/2022/04/functional_optics.jpg)
Functional silk platforms for optically-monitored drug releasing devices
![](https://sites.tufts.edu/bmeoptics/files/2022/04/3d_machining.jpg)
3D laser machining of silk hydrogels
![](https://sites.tufts.edu/bmeoptics/files/2022/04/SIO.jpg)
Development of functional nanopatterned silk films for bioresorbable structurally colored devices
![](https://sites.tufts.edu/bmeoptics/files/2022/04/optical_fiber-1024x618.png)
Fabrication of silk fibers with applications in clinical imaging and diagnostics
![](https://sites.tufts.edu/bmeoptics/files/2022/04/diffraction_optics-1024x611.png)
Diffractive silk optical elements obtained by soft lithography
![](https://sites.tufts.edu/bmeoptics/files/2022/04/lunaria.png)
Study of natural photonic structures for bioinspired broadband reflectors