Fluid Viscosity Affects the Fragmentation and Inertial Cavitation Threshold of Lipid-Encapsulated Microbubbles - Helfield, Brandon; Black, John J.; Qin, Bin; Pacella, John; Chen, Xucai; Villanueva, Flordeliza S. (Ultrasound in medicine & biology, 2016)
Keywords: Capsules - chemistry; Capsules - radiation effects; Contrast Media - chemistry; Contrast Media - radiation effects; Fluid viscosity; Fragmentation; Gases - chemical synthesis; High-Energy Shock Waves; High-speed imaging; Inertial cavitation; Lipids - chemistry; Lipids - radiation effects; Materials Testing; Microbubbles; Radiation Dosage; Radiology; Rheology - methods; Solutions - chemistry; Solutions - radiation effects; Sonication - methods; Stable cavitation; Ultrasound; Viscosity; Stable cavitation; Fluid viscosity; High-speed imaging; Microbubbles; Ultrasound; Inertial cavitation; Fragmentation