TY - JOUR
T1 - Therapeutic potential of low-intensity ultrasound (part 2)
T2 - Biomolecular effects, sonotransfection, and sonopermeabilization
AU - Feril, Loreto B.
AU - Tachibana, Katsuro
AU - Ikeda-Dantsuji, Yurika
AU - Endo, Hitomi
AU - Harada, Yoshimi
AU - Kondo, Takashi
AU - Ogawa, Ryohei
N1 - Funding Information:
Acknowledgments This work was supported in part by Grants-in-Aid for Scientific Research on Priority Areas (18800075 and 18800076) from the Ministry of Education, Culture, Sports, Science and Technology of Japan, and also in part by a grant from Fukuoka University Central Research Institute.
PY - 2008/12
Y1 - 2008/12
N2 - Part one of this review focused on the thermal and mechanical effects of low-intensity ultrasound (US). In this second and final part of the review, we will focus on and discuss various aspects of low-intensity US, with emphasis on the biomolecular effects, US-mediated gene transfection (sonotransfection), and US-mediated permeabilization (sonopermeabilization). Sonotransfection of different cell lines in vitro and target tissues in vivo have been reported. Optimization experiments have been done and different mechanisms investigated. It has also been found that several genes can be up-regulated or down-regulated by sonication. As to the potential therapeutic applications, systemic or local sonotransfection might also be a safe and effective gene therapy method in effecting the cure of local and systemic disorders. Gene regulation of target cells may be utilized in modifying cellular response to a treatment, such as increasing the sensitivity of diseased cells while making normal cells resistant to the side effects of a treatment. Advances in sonodynamic therapy and drug sonopermeabilization also offer an ever-increasing array of therapeutic options for low-intensity US.
AB - Part one of this review focused on the thermal and mechanical effects of low-intensity ultrasound (US). In this second and final part of the review, we will focus on and discuss various aspects of low-intensity US, with emphasis on the biomolecular effects, US-mediated gene transfection (sonotransfection), and US-mediated permeabilization (sonopermeabilization). Sonotransfection of different cell lines in vitro and target tissues in vivo have been reported. Optimization experiments have been done and different mechanisms investigated. It has also been found that several genes can be up-regulated or down-regulated by sonication. As to the potential therapeutic applications, systemic or local sonotransfection might also be a safe and effective gene therapy method in effecting the cure of local and systemic disorders. Gene regulation of target cells may be utilized in modifying cellular response to a treatment, such as increasing the sensitivity of diseased cells while making normal cells resistant to the side effects of a treatment. Advances in sonodynamic therapy and drug sonopermeabilization also offer an ever-increasing array of therapeutic options for low-intensity US.
KW - Biomolecular effects
KW - Low-intensity ultrasound
KW - Sonopermeabilization
KW - Sonotransfection
UR - http://www.scopus.com/inward/record.url?scp=59449107141&partnerID=8YFLogxK
U2 - 10.1007/s10396-008-0195-x
DO - 10.1007/s10396-008-0195-x
M3 - 総説
C2 - 27278987
AN - SCOPUS:59449107141
SN - 1346-4523
VL - 35
SP - 161
EP - 167
JO - Journal of Medical Ultrasonics
JF - Journal of Medical Ultrasonics
IS - 4
ER -