Molecular Bioelectrostatics & Drug Delivery Laboratory
Located at Northeastern University’s Interdisciplinary Science and Engineering Complex (ISEC), the Bajpayee Lab works at the intersection of biomaterials design, nanomedicine and translational research. We utilize the body’s internal electric fields to design electrically charged biomaterials using proteins, peptides and cellular materials like exosomes, for targeting difficult to reach tissues for applications in drug delivery and diagnostic imaging.
Negatively charged tissues such as cartilage, meniscus, intervertebral disc, eye, and mucosal membrane, that also tend to be dense and avascular, are ubiquitous in the human body but remain outstanding challenges for targeted drug delivery. Their degeneration is associated with several common diseases that remain untreatable due to a lack of delivery systems that can enable drugs to penetrate the negatively charged matrix and reach their cellular targets. The high negative fixed charge density, however, can be converted from being a challenge to an opportunity by engineering therapeutics at the molecular level to add optimally positively charged domains such that electrostatic interactions can enhance their transport, uptake and retention rather than hindering them. Our lab engineers targeted bioelectrical therapeutics for treatment of diseases affecting such intrinsically charged tissues. We strive to combine basic science with translational research to develop biomedical technologies for unmet clinical needs.
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Our Lab News
Rishihood University’s Mahesh Navani School of Brain, Body and Behavior Roundtable at MIT
Prof. Bajpayee organized the roundtable focused on the establishment of the Mahesh Navani School of Brain, Body and Behavior at Rishihood University in India. It was a great meeting with deep discussions on the questions of mind, body, and consciousness! Prof....
Congrats to Bill and Coauthors on the recently published work in Biophysical Journal: “Spatial charge-hydrophobicity configuration modulates cationic peptide transport in cartilage”
In this work, we investigated the contribution of charge and hydrophobicity spatial arrangement on cationic peptide's intra-cartilage transport. We found that there is an optimum cationic peptide carrier's residue configuration for cartilage targeting properties....
Congratulations, Dr. Timothy Boyer!
Congratulations to Dr. Timothy Boyer for successfully defending his doctoral thesis! Tim’s work has focused on designing cartilage targeting cationic fusion proteins for treatment of osteoarthritis. Tim is off to pursue his postdoctoral work at Rush University! He...





