Welcome to the Belardi Lab at the University of Texas at Austin!

test_12.png
test_02.png

We are a young, passionate group of interdisciplinary researchers combining expertise in molecular engineering, synthetic biology, chemical biology, and biophysics to better diagnose and treat disease.
 

Our lab seeks to probe, perturb, and re-program biological barriers across length scales. Metazoans - which include humans - have evolved to assemble exquisite semi-permeable membrane structures that regulate the flux of select material in and between cells and tissues. The complex, multi-component topologies and mesh-like architectures of biological barriers are rich sources of biological information and often deteriorate in pathological conditions.  With molecular tools in hand, we study epithelial cells and tissue, extracellular matrix, and cell membrane interfaces to gain a quantitative and mechanistic understanding of these barriers. Leveraging our fundamental insights, researchers in the lab build smarter molecules, materials, and cells for improving drug bioavailability in the gut and brain, detecting and repairing cancerous tissue, and for regenerative medicine applications.

**Postdoctoral openings. We are recruiting postdoctoral fellows! Motivated researchers interested in cutting-edge cell biology, biophysics, and/or chemical biology are encouraged to contact Prof. Belardi. Our lab fosters an inclusive and stimulating environment to help researchers from diverse backgrounds thrive and gain independence. See project areas below. If interested, please email Prof. Belardi with a CV, a cover letter detailing research directions in our lab you'd like to pursue (see below and Publications), and a research summary.**

slogan_main_c.png
test_01%20copy_edited.png
Fig2.png
Fig2.png
Fig1_p.png
Fig1_p.png
test_06.png

Compared to the cellular proteome, extracellular matrix (ECM) proteins harbor unique and surprising forms of post-translational modifications. These modifications reflect tissue state and are often remodeled during disease progression, e.g. tumorigenesis and fibrosis. How do these modifications affect ECM self-assembly and potentiate cell signaling? And how might they be used as a next-generation biomaterial? Our approach to these questions is to synthesize and characterize modified forms of ECM. In parallel, we pursue creative methods for detecting ECM modifications in patient samples as a new diagnostic platform.

h_extra.png
Extracellular Matrix
Modifications
small_UT-orange-dot.png
h_ephi.png
Epithelial Contacts & Engineering

Spatially separated junctions line epithelial cell membranes and are instrumental in governing tissue homeostasis and cohesion. In vertebrates, the task of regulating paracellular permeability falls on the apical-most junction, the tight junction. We work on uncovering how tight junctions form, how they are maintained over time, and how they respond to biological insults. These efforts are coupled with the design of reagents and materials to manipulate tight junctions for improving drug bioavailability and for treating transport disorders.

small_yellow-dot.png
Fig4_p.png
Fig4_p.png
Fig5_p.png

Cell-based therapies and grafts have transformed the medical industry, yet suffer from serious side-effects and drawbacks. Synthetic cells – cell-like assemblies built from defined molecular parts – offer an attractive alternative to overcome many of the issues associated with engineered patient cells. Our lab combines protein engineering, ligation chemistry and microfluidics to construct synthetic cells that perform advanced operations, such as adhesion and sensing, for therapeutic and regenerative medicine applications.

h_synthe.png
Synthetic Cell Construction
small_green-dot.png
Fig3.png
Fig7_p.png
Fig7_p.png
h_protein.png
Protein Switches

Protein function is intimately linked to molecular conformation. The ability to trigger changes in protein conformation through external, orthogonal inputs point to a future of control over biological activity and function. Under development in our lab are molecular switches that augment membrane and cytoskeletal organization in cells with user-defined inputs. We envision a cascade of effects following activation that extend from single molecules to cells and tissue. In doing so, macroscopic parameters – tissue adhesion, stiffness, and permeability – can be toggled through protein-based switches.

small_blue-dot.png

NEWS

June 2022

The lab welcomes UT undergraduates, Olivia and Hannah, and summer REU student, Sebastian!

April 2022

Isabela and Unyime pass their qualifying exams! 🥂

April 2022

Alex Lin is awarded an NSF GRFP. Congratulations! 🎊

March 2022

Anika Doppalapudi joins the lab as an undergraduate researcher. Welcome!

March 2022

Prof. Belardi and Prof. Michael Koval (Emory) are co-editors for a Special Issue in Pharmaceutics on Targeting Cell Junctions for Therapy and Delivery

February 2022

Vidal and Sheng-Ping from the Interdisciplinary Life Sciences Graduate Program join us for their final rotation!

October 2021

🌅 Vinya and Ahmed from Chemical Engineering join the lab! Welcome!

October 2021

🔬 Our collaborative pilot grant with the Kurie lab at MD Anderson was funded! Thank you 

September 2021

🎆 Alex Lin from the Department of Chemistry joins the lab. Welcome!

August 2021

👩‍🔬👨‍🔬 The Belardi lab receives a 5-year Maximizing Investigators' Research Award (MIRA) from the NIH!

June 2021

Welcome to our newest member, Keyu Chen!

April 2021

🍾 The Welch Foundation recognizes the Belardi lab with a research grant for our work on extracellular matrix modifications!

March 2021

Elle Keogh joins the lab for her final rotation. Welcome!

January 2021

🎉 The Belardi Lab launches in the McKetta Department  of Chemical Engineering at UT Austin 

We are now accepting students from the McKetta Department of Chemical Engineering, the Institute for Cellular and Molecular Biology, and the Department of Chemistry. Please contact Prof. Belardi if you are interested.

December 2020

🚧 Lab renovations are underway in EERC

renovation_03.jpg
renovation_01.jpg
renovation_02.jpg

October 2020

🥳Two ChE graduate students, Isabela and Unyime, join the lab!
Welcome!

test_06.png
test_10.png
Pic1.png