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Elizabeth Rose Lotsof

Elizabeth Rose Lotsof

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Education: 

B.A. Chemistry: Biochemistry Concentration, Cum Laude

Minors in Educational studies and Anthropology, Washington University in St. Louis

From: Chicago, Illinois

Joined the David Lab: January 2017

Outside of lab: I enjoy kickboxing, skiing, music concerts, dancing and baking.

Research in David Lab:

The NEIL family of DNA glycosylases are critical enzymes to maintaining the integrity of the genome. They initiate the base excision repair (BER) pathway by cleaving the N-glycosidic bond between the oxidatively damaged base and the sugar. NEIL1 and NEIL3 have a unique ability to excise a wide variety of substrates and remove lesions from alternative DNA contexts. Because of these abilities, I am currently evaluating the ability of NEIL1 and NEIL3 to excise oxidative base damage from G-quadruplex structures. G-quadruplexes DNA structures that occur in sequences that contain three or four adjacent guanines, which can Hoogsteen hydrogen-bond together to from a G-quartet. These G-quartets will stack together with a central K+ or Na+ ion to stabilize the structure in a variety of conformations. What makes the G-quadruples so notable is their location in the promoter sequences of many oncogenes and BER glycosylases, NEIL1 and NEIL3, and they have been implicated in down- or up-regulating gene transcription. Additionally, due to their high G content, G-quadruplexes are prime spots for oxidative damage necessitating repair by the BER pathway. NEIL’s ability to cleave from such structures suggest a dynamic relationship between DNA repair and gene regulation.

Previous Research Experience:

I previously worked as a Research Coordinator for the NorthShore University Health System’s Division of Urogynecology, where I studied the factors that impact patient persistence with urological medication and the relationship between different Urogynecological surgeries and their post-operative results, in addition to managing ongoing clinical trials.  In addition to my research work, I am passionate about science communication and accessibility and helping those with rare genetic diseases. I hope to one day have a career with a biotechnology company focused on therapeutics for individuals with rare genetic diseases.

RSS Science Daily News

  • The Sun’s hidden particle engines finally exposed September 3, 2025
    Solar Orbiter has identified the Sun’s dual “engines” for superfast electrons: explosive flares and sweeping coronal mass ejections. By catching over 300 events close to their origin, the mission has solved key mysteries about how these particles travel and why they sometimes appear late. The findings will improve space weather forecasts and help shield spacecraft […]
  • A weirdly shaped telescope could finally find Earth 2. 0 September 3, 2025
    Spotting Earth-like planets is nearly impossible with conventional telescopes, but researchers propose a bold fix: a rectangular design that can separate a planet’s faint glow from its blinding star. This approach could uncover dozens of nearby worlds that might host life.
  • The flawed carbon math that lets major polluters off the hook September 3, 2025
    Past climate assessments let big polluters delay action, placing more burden on smaller nations. A new method based on historical responsibility demands steep cuts from wealthy countries and more financial support for poorer ones. Courts are now stepping in, making climate justice not just political but also legal.
  • Overworked neurons burn out and fuel Parkinson’s disease September 3, 2025
    Overactivation of dopamine neurons may directly drive their death, explaining why movement-controlling brain cells degenerate in Parkinson’s. Mice with chronically stimulated neurons showed the same selective damage seen in patients, along with molecular stress responses. Targeting this overactivity could help slow disease progression.
  • Hidden viruses in our DNA could be medicine’s next big breakthrough September 3, 2025
    Scientists have decoded the 3D structure of an ancient viral protein hidden in our DNA. The HERV-K Env protein, found on cancer and autoimmune cells, has a unique shape that could unlock new diagnostics and therapies.

Contact:

Dr. Sheila S. David
ssdavid@ucdavis.edu
(530)-752-4280

Department of Chemistry
One Shields Ave.
Davis, CA 95616