In this review, the potential of pharmacologic therapy for prevention of radiation-induced bone growth inhibition is discussed. Significant radioprotection using the radioprotector Amifostine has been achieved in animal models of radiation-induced retardation of long and craniofacial bone growth. Moreover, radioprotection in vitro has been achieved in a number of cell lines, including osteoblast-like, endothelial, and fibroblastic. This evidence may support future clinical investigations of radioprotector Amifostine or similar substances for radioprotection of the growing craniofacial skeleton
Radiation countermeasures have been investigated for decades, but the search for ideal protective ag...
Radiation-induced craniofacial bone growth inhibition is a consequence of therapeutic radiation in t...
the raw data of the article "Amifostine showed an inhibition effect on the differentiation of Raw264...
Malignancies are frequently located in the head and neck region in children; their management usuall...
BACKGROUND: Radiotherapy for the management of head and neck cancer in pediatric patients results in...
The authors previously established an animal model of radiation-induced craniofacial bone growth inh...
Multimodality treatment, including radiotherapy, chemotherapy, and surgery, is required for the mana...
The effect of some protective agents on cataract development is briefly reviewed and new evidence is...
Abstract Background Radiation therapy is widely employed in the treatment of head and neck cancer. A...
The authors have previously demonstrated that radiation-induced craniofacial bone growth inhibition ...
Recently, there has been an increase in the interest in research on radioprotective agents. The aim ...
Background: The availability of radioprotectant drugs that selectively protect normal cells but not ...
Radiation damages normal tissues that can adversely affect the success of cancer radiotherapy, safet...
© 2017 Dr Jai SmithThe unavoidable irradiation of normal tissue during cancer radiotherapy can lead ...
This study is aimed at investigating the effect of amifostine (AMI) on rat bone marrow stromal stem ...
Radiation countermeasures have been investigated for decades, but the search for ideal protective ag...
Radiation-induced craniofacial bone growth inhibition is a consequence of therapeutic radiation in t...
the raw data of the article "Amifostine showed an inhibition effect on the differentiation of Raw264...
Malignancies are frequently located in the head and neck region in children; their management usuall...
BACKGROUND: Radiotherapy for the management of head and neck cancer in pediatric patients results in...
The authors previously established an animal model of radiation-induced craniofacial bone growth inh...
Multimodality treatment, including radiotherapy, chemotherapy, and surgery, is required for the mana...
The effect of some protective agents on cataract development is briefly reviewed and new evidence is...
Abstract Background Radiation therapy is widely employed in the treatment of head and neck cancer. A...
The authors have previously demonstrated that radiation-induced craniofacial bone growth inhibition ...
Recently, there has been an increase in the interest in research on radioprotective agents. The aim ...
Background: The availability of radioprotectant drugs that selectively protect normal cells but not ...
Radiation damages normal tissues that can adversely affect the success of cancer radiotherapy, safet...
© 2017 Dr Jai SmithThe unavoidable irradiation of normal tissue during cancer radiotherapy can lead ...
This study is aimed at investigating the effect of amifostine (AMI) on rat bone marrow stromal stem ...
Radiation countermeasures have been investigated for decades, but the search for ideal protective ag...
Radiation-induced craniofacial bone growth inhibition is a consequence of therapeutic radiation in t...
the raw data of the article "Amifostine showed an inhibition effect on the differentiation of Raw264...