Pre-Doctoral Students
Grace Conway, BS
MD/PhD Student, Medical Scientist Training Program, University of Pittsburgh School of Medicine
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- 960 Scaife Hall
- gec36@pitt.edu
- 412-624-2313
Peer Reviewed Articles
1. Chen K*, Conway GE*, Hamilton GA, Trawick ML, Leopold MC. Electropolymerized layers as selective membranes in first generation uric acid biosensors. J of Appl Electrochem 2016;46:603-615. (* = co-first authors).
2. Conway GE*, Lambertson RH*, Schwarzmann MA, Pannell MJ, Kerins HW, Rubenstein KJ, Dattelbaum JD, Leopold MC. Layer-by-layer design and optimization of xerogel-based amperometric first generation biosensors for uric acid. J of Electroanal Chem 2016;775:135-145. (* = co-first authors).
3. Hughes LB, Labban N, Conway GE, Pollock JA, and Leopold MC. Adaptable Xerogel-Layered Amperometric Biosensor Platforms on Wire Electrodes for Clinically Relevant Measurements. Sensors 2019;19:2584.
Abstracts and Presentations
1. Wayu M, Conway GE, Pannell MJ, Schwarzmann M, Kerins H, Leopold MC. Layer-by-Layer Xerogel-based 1st Generation Amperometric Biosensors for Uric Acid Using Nanoparticle Networks for Enhanced Sensitivity. Southeastern Regional Meeting of the American Chemical Society, 2016, Columbia, SC.
2. Conway GE, Leopold MC. Layer-by-Layer Design of Xerogel-based Amperometric First Generation Biosensors For Uric Acid On Wire Electrodes. Pittsburgh Conference on Analytical Chemistry and Applied Spectroscopy, 2017, Chicago, IL.
3. Conway GE, Leopold MC. Development of Layer-by-Layer Design of Xerogel-based Amperometric First Generation Biosensors On Wire Electrodes. The 253rd National Meeting of the American Chemical Society, 2017, San Francisco, CA.
4. Hughes LB, Conway GE, Labban N, Case W, Pollock J, Leopold MC. Development of Xerogel-based Amperometric 1st Generation Biosensors on Wire Electrodes for Clinically Relevant Measurements. Southeastern Regional Meeting of the American Chemical Society, 2017, Charlotte, NC.
5. Conway GE, Paranjape AN, Chen X, Villanueva FS. Development of an in vitro System to Study Mechanisms of Ultrasound-Targeted Microbubble Cavitation-Mediated Blood Brain Barrier Opening. Circulation 2021;144:A12472, American Heart Association Scientific Sessions, virtual.
6. Conway GE, Paranjape AN, Chen X, Villanueva FS. Ultrasound-Targeted Microbubble Cavitation Increases Blood Brain Barrier Permeability in an in vitro System. The 27th European Symposium on Ultrasound Contrast Imaging, 2022, virtual.
7. Conway GE, Paranjape AN, Chen X, Villanueva FS. Ultrasound-targeted microbubble cavitation increases paracellular gaps in an in vitro blood brain barrier model. J Acoust Soc Am, 2022;151 (4 Pt. 2):A152:3aBA3, Acoustical Society of America, Denver, CO.
8. Conway GE, Paranjape AN, Chen X, Villanueva FS. Understanding the Mechanisms of Ultrasound-Targeted Microbubble Cavitation-Mediated Blood Brain Barrier Opening. Circulation, 2022;146:A15877, American Heart Association Scientific Sessions, Chicago, IL.
