@misc{oai:repo.qst.go.jp:00072394,
 author = {Imaoka, Tatsuhiko and Morioka, Takamitsu and Nishimura, Yukiko and Kaminishi, Mutsumi and Takabatake, Masaru and Iizuka, Daisuke and Kudo, Ken-ichi and Daino, Kazuhiro and Nishimura, Mayumi and Yokoya, Akinari and Yamakawa, Koichi and Aoyama, Makoto and Takuwa, Hiroyuki and Higuchi, Makoto and Kakinuma, Shizuko and 今岡 達彦 and 森岡 孝満 and 西村 由希子 and 上西 睦美 and 高畠 賢 and 飯塚 大輔 and 工藤 健一 and 臺野 和広 and 西村 まゆみ and 横谷 明徳 and 山川 考一 and 青山 誠 and 田桑 弘之 and 樋口 真人 and 柿沼 志津子},
 month = {Jul},
 note = {Radiation exposure elevates risk of cancer. Carcinogenesis is a process of forming cancer, which is considered to originate from a cell that harbors an important genetic change (i.e., mutation). There are many knowledge gaps, however, about the mechanism of carcinogenesis induced by radiation. Application of quantum technologies potentially has great impacts in many fields of life science including cancer research and radiation biology. We therefore aim at applying quantum technologies to facilitate research on the mechanism of radiation carcinogenesis. Among a myriad of technologies developed in QST, we put our focus on quantum beam technologies as sources of radiation for induction of cancer-initiating (‘radiation signature’) mutations, infrared laser spectrometry as novel pathological analyses (‘quantum pathology’) of tumor tissues, and two photon imaging for studying the initial stages of cancer induction (‘lineage imaging’ and ‘mutation imaging’). In the presentation, we briefly introduce our current project on radiation carcinogenesis in an animal model of breast cancer and related application of quantum technologies., 1st QST International Symposium},
 title = {Illuminating Radiation Carcinogenesis with the Light of Quantum Technology},
 year = {2017}
}