Biography
Sara Keller obtained her BE in Biomedical Engineering from Vanderbilt University in 2016 and completed a PhD in Bioengineering at the University of Washington in 2021. Her PhD focused on image-guided therapy for cancer treatment and treatment monitoring. She joined the BUBBL group as a postdoctoral research assistant in November 2021.
Most Recent Publications
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
Research Interests
- Image-guided therapy
- antimicrobial therapy
- cavitation
- cavitation monitoring
Research Groups
Related Academics
Most Recent Publications
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
Most Recent Publications
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Quantitative evaluation of anti-biofilm cavitation activity seeded from microbubbles or protein cavitation nuclei by passive acoustic mapping
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Spatio-temporal evaluation of anti-biofilm cavitation activity by passive acoustic mapping
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
Bactericidal and anti-biofilm effects of uncharged and cationic ultrasound-responsive nitric oxide microbubbles on Pseudomonas aeruginosa biofilms
