Ashtyn Bell
Researcher
Also affiliated: Conway School of Landscape Design (2021)
Unknown Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Ashtyn Bell's research focuses on molecular biology and the development of novel research tools. Bell has contributed to studies investigating the role of specific genetic motifs in DNA synthesis and repair, as demonstrated by their 2023 publication on the insert-2 motif and its effect on Rev1 function. Additionally, Bell has worked on the design and implementation of accessible scientific instrumentation, as evidenced by the 2021 publication detailing the "Fluorino," a low-cost, Arduino-controlled fluorometer. This work highlights an interest in both fundamental biological processes and the practical application of technology in research settings. Bell has collaborated with researchers at the University of Arkansas for Medical Sciences, including Amit Ketkar, Robert L. Eoff, and Mason McCrury, and with Julie Gunderson at Hendrix College.
Metrics
- h-index: 2
- Publications: 3
- Citations: 29
Selected Publications
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Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis (2023)
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The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer (2021)
Collaboration Network
Top Collaborators
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- The Fluorino: A Low-Cost, Arduino-Controlled Fluorometer
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
- Conservation of the insert-2 motif confers Rev1 from different species with an ability to disrupt G-quadruplexes and stimulate translesion DNA synthesis
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