TY - JOUR
T1 - Development of shock wave assisted therapeutic devices and establishment of shock wave therapy
AU - Hosseini, S. H.R.
AU - Menezes, V.
AU - Moosavi-Nejad, S.
AU - Ohki, T.
AU - Nakagawa, A.
AU - Tominaga, T.
AU - Takayama, K.
N1 - Funding Information:
This work has been partly supported by the Grant-in-Aid for Scientific Research 12CE2003 offered by the Ministry of Education, Culture, Sport, Science and Technology, Japan.
PY - 2006/8
Y1 - 2006/8
N2 - In order to exploit systems for shock wave therapy, we are working for the development of clinical devices that are based on the concept of shock waves or related phenomena. The paper describes these new therapeutic devices designed for the minimally invasive approach to vascular thromboloysis, selective dissection of tissues, and drug or DNA delivery. To investigate the response of cells to shock loading, a precise method of shock waves generation in space and time has been developed. This method has been studied for application in cardiovascular therapy, cancer treatment, and cranioplasty in close vicinity of the brain. A laser ablation shock wave assisted particle acceleration device has been developed for delivering drug and DNA into soft targets in the human body. The penetration depth of microparticles observed in the experimental targets is believed to be sufficient for pharmacological treatments. In order to achieve an efficient method for rapid revascularization of cerebral thrombosis, a laser induced liquid jet (LILJ) system has been developed. The LILJ has been successfully applied for selective dissection of soft tissue preserving nerve and blood vessels. The system has been further improved by using piezoelectric actuators to drive the liquid jets, as an alternative to pulse laser.
AB - In order to exploit systems for shock wave therapy, we are working for the development of clinical devices that are based on the concept of shock waves or related phenomena. The paper describes these new therapeutic devices designed for the minimally invasive approach to vascular thromboloysis, selective dissection of tissues, and drug or DNA delivery. To investigate the response of cells to shock loading, a precise method of shock waves generation in space and time has been developed. This method has been studied for application in cardiovascular therapy, cancer treatment, and cranioplasty in close vicinity of the brain. A laser ablation shock wave assisted particle acceleration device has been developed for delivering drug and DNA into soft targets in the human body. The penetration depth of microparticles observed in the experimental targets is believed to be sufficient for pharmacological treatments. In order to achieve an efficient method for rapid revascularization of cerebral thrombosis, a laser induced liquid jet (LILJ) system has been developed. The LILJ has been successfully applied for selective dissection of soft tissue preserving nerve and blood vessels. The system has been further improved by using piezoelectric actuators to drive the liquid jets, as an alternative to pulse laser.
KW - Non-invasive approach
KW - Therapeutic devices
KW - Underwater shock waves
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U2 - 10.1080/13645700600836315
DO - 10.1080/13645700600836315
M3 - Article
C2 - 16966137
AN - SCOPUS:33748518897
SN - 1364-5706
VL - 15
SP - 230
EP - 240
JO - Endoscopic surgery and allied technologies
JF - Endoscopic surgery and allied technologies
IS - 4
ER -