論文

• Haruna Seki, Tatsuki Fujiwara, Wataru Hijikata, Tomotaka Murashige, Takuro Maruyama, Sachie Yokota, Asato Ogata, Katsuhiro Ouchi, Tomohiro Mizuno, Hirokuni Arai. Verification of a thrombus induction method at the target point inside the blood pump using a fibrinogen coating for a thrombus detection study, Artificial Organs, Vol. 44, no. 9, pp. 968-975, Sept. 2020.
• Wataru Hijikata, Takuro Maruyama, Tomotaka Murashige, Daisuke Sakota, Osamu Maruyama. Detection of thrombosis in a magnetically levitated blood pump by vibrational excitation of the impeller, Artificial Organs, Vol. 44, No. 6, pp. 596-603, Jan. 2020.
• Wataru Hijikata, Takuro Maruyama, Yuki Suzumori, Tadahiko Shinshi. Measuring real-time blood viscosity with a ventricular assist device, Proc. IMech E Part H: Journal of Engineering in Medicine, SAGE Journals, Vol. 233, No. 5, pp. 562-569, Apr. 2019.
• Takuro Maruyama, Tomotaka Murashige, Daisuke Sakota, Osamu Maruyama, Wataru Hijikata. Development of an intelligent ventricular assist device with a function of sensorless thrombus detection, Proceedings of the Annual International Conference of the IEEE Engineering in Medicine and Biology Society, IEEE EMBS, Vol. 2018, p. 4516, July 2018.

国際会議発表 (査読有り)

• Haruna Seki, Tatsuki Fujiwara, Wataru Hijikata, Katsuhiro Ohuchi, Tomotaka Murashige, Takuro Maruyama, Tomoki Tahara, Asato Ogata, Sachie Yokota, Hirokuni Arai. Evaluation of thrombus detection methods in a magnetically levitated blood pump in an animal experiment, The 8th Meeting of the International Federation for Artificial Organs, Nov. 2019.
• Haruna Seki, Tatsuki Fujiwara, Wataru Hijikata, Katsuhiro Ohuchi, Tomotaka Murashige, Takuro Maruyama, Tomoki Tahara, Asato Ogata, Sachie Yokota, Hirokuni Arai. Development of thrombus induction method at the target site using fibrinogen solution coating, The 8th Meeting of the International Federation for Artificial Organs, Nov. 2019.
• Wataru Hijikata, Tomotaka Murashige, Takuro Maruyama, Asato Ogata, Tatsuki Fujiwara, Katsuhiro Ohuchi, Hirokuni Arai. Development of an intelligent blood pump with a self-detecting function of thrombus, 26th Annual Meeting for the International Society for Mechanical Circulatory Support (ISMCS2018), p. 88, Oct. 2018.
• Takuro Maruyama, Tomotaka Murashige, Daisuke Sakota, Osamu Maruyama, Wataru Hijikata. Development of an intelligent ventricular assist device with a function of sensorless thrombus detection, 40th Annual International Conference of the IEEE Engineering in Medicine and Biology Society (IEEE EMBC), Conference Proceedings : Annual International Conference of the IEEE Engineering in Medicine and Biology Society 2018, IEEE EMBC, pp. 4516-4519, July 2018.
• Takuro Maruyama, Tomotaka Murashige, Daisuke Sakota, Osamu Maruyama, Wataru Hijikata. Sensorless Detection of Thrombus Using Real-Time Viscosity Measurement in a Magnetically-Levitated Rotary Blood Pump, International Society for Mechanical Circulatory Support 2017, Abstract of 2017 ISMCS, Oct. 2017.

国内会議発表 (査読有り)

• 丸山拓朗, 村重智崇, 土方亘. センサレス血栓検知機能を備えたインテリジェント人工心臓の開発, 生活生命支援医療福祉工学系連合大会(LIFE2018), Sept. 2018.
• 村重智崇, 丸山拓朗, 迫田大輔, 丸山修, 土方亘. ポンプ内血栓を自己検知するインテリジェント人工心臓の開発, 第４６回人工心臓と補助循環懇話会学術集会, 第４６回人工心臓と補助循環懇話会学術集会プログラム・抄録集, Feb. 2018.

国際会議発表 (査読なし・不明)

• Wataru Hijikata, Takuro Maruyama, Yuki Suzumori, Tadahiko Shinshi. Sensorless Real-time Blood Viscosity Measurement in a Magnetically-levitated Ventricular Assist Device, 24th Congress of the International Society for Rotary Blood Pump, Program & Abstract Book of ISRBP 2016, Sept. 2016.

国内会議発表 (査読なし・不明)

• 土方亘, 村重智崇, 丸山拓朗, 藤原立樹, 大内克洋, 荒井裕国. 知能化磁気浮上システムの開発と医療応用, 第16回「運動と振動の制御」シンポジウム (MoViC2019), Dec. 2019.
• 丸山拓朗, 迫田大輔, 丸山修, 土方亘. 人工心臓用磁気軸受を用いたセンサレス血栓検出の研究, 第２９回「電磁力関連のダイナミクス」シンポジウム, 第２９回「電磁力関連のダイナミクス」シンポジウム講演論文集, pp. 301-302, May 2017.
• 丸山 拓朗, 土方 亘, 進士 忠彦. 磁気浮上式人工心臓におけるセンサレス粘度推定とその応用, 日本機械学会関東学生会第56回学生員卒業研究発表講演会, 日本機械学会関東学生会第56回学生員卒業研究発表講演会論文集, 日本機械学会, pp. 1511, Mar. 2017.
• 土方亘, 丸山拓朗, 迫田大輔, 丸山修. 磁気浮上型人工心臓における血栓の早期センサレス検出, 第４５回人工心臓と補助循環懇話会学術集会, 第４５回人工心臓と補助循環懇話会学術集会抄録集, p. 30, Feb. 2017.

[ BibTeX 形式で保存 ]    [ 論文・著書をCSV形式で保存 ]    [ 特許をCSV形式で保存 ]