Edward Pimentel

@edwardpimentel.bsky.social

Stanford Postdoc (Soh Lab) 🧬 UW-Madison PhD (Martell Group) 🧪 Loves Chemistry, Books, Bread, Bikes and Plants. 🇺🇸 🇧🇦 🇷🇴 🇳🇱 🇸🇩 🇧🇪

Polizzi lab preprint just dropped! Big implications for the future of small molecule sensing: Jeffrey designed de novo proteins with conformational changes upon binding that can be read out optically! Read it now on bioRxiv: www.biorxiv.org/content/10.6...

De novo design of small-molecule-induced conformational change

Many biological proteins function by changing shape upon small-molecule binding. Here, we present a general strategy for designing de novo proteins that undergo small-molecule-induced conformational c...

biorxiv.org

Boston Protein Design and Modeling Club@bpdmc.org · yesterday

Next week, Jeffrey Chang from @nickpolizzi.bsky.social's lab will present cutting-edge work from a pre-print that just came out today! Wednesday, August 12th 2026, 7pm EDT in Room 6055, Longwood Center, @danafarber.bsky.social "De novo design of small-molecule-induced conformational change"

We're looking for a technology transfer intern to: ✔️ Assist with licensing & IP projects ✔️ Participate in outreach activities ✔️ Conduct market research Visit our careers page to learn more and apply! #NowHiring

WARF Careers | Wisconsin Alumni Research Foundation

WARF helps steward the cycle of innovation with a team that includes intellectual property, commercialization, investment and engagement professionals.

warf.org

Fresh from the Soh lab: using a high-throughput aptamer screening platform to design non-intuitive split aptamers that challenge the traditional approach to split design. Bonus: this Lettuce won't give you cyclosporiasis. 🥬 😂 Read now in ACS Sensors: pubs.acs.org/ascefj/artic...

A Rationally Designed Split Lettuce Aptamer Based on Large-Scale Mutational Analysis

AbstractSplit-aptamer biosensors offer exceptionally low background by assembling only in the presence of a target analyte; however, their performance is f

pubs.acs.org

Chemist & X-ray crystallographer Rosalind Franklin's meticulous research was instrumental in uncovering DNA's molecular structure. Most famous for her role in the DNA double helix discovery, her work also revolutionized our understanding of viruses & coal. Died #OTD in 1958, age 37. #WomenInSTEM

This black-and-white studio portrait photograph captures Rosalind Elsie Franklin, the brilliant British chemist and X-ray crystallographer whose meticulous research produced Photograph 51—the iconic X-ray diffraction image that revealed DNA’s double-helix structure and proved pivotal to the 1953 Watson-Crick model of the molecule. Shown in a close-up, three-quarter view from the shoulders up, Franklin appears in her late twenties or early thirties, her dark, wavy hair neatly styled and swept back from her face. She wears a simple, dark collared blouse or shirt with a crisp, professional appearance that reflects the understated elegance typical of mid-20th-century scientific women. Her expression is calm and intensely focused: direct gaze slightly off-camera to the viewer’s left, lips gently closed in a subtle, knowing half-smile, conveying quiet confidence, intellectual depth, and quiet determination. The plain, softly lit studio background with its neutral gradient emphasizes her face and upper torso, creating an intimate, timeless composition that places her poised presence at the absolute center.