招待講演

1

Akane Yamada, Gen Onodera, Masanari Kimura, Kai Kamada, “Stabilization of α-ZrP ceramic nanosheets adsorbing quaternary ammonium ions in organic solvents and their application as a stable solid support for lipase catalyzing stereospecific synthetic reactions”, J. Asian Ceram. Soc., Vol. 10, pp. 338-345 (2022. 3. 31). [doi: 10.1080/21870764.2022.2051125]

2

Takeo Hyodo, Wataru Sakata, Taro Ueda, and Yasuhiro Shimizu, “Effects of surface modification of platinum electrodes with gold on hydrogen-sensing properties of diode-type sensors”, ECS Sensor Plus, Vol. 1, No. 1, Article No. 013602 (2022. 04.13). [doi: 10.1149/2754-2726/ac5b9f]

3

Taro Ueda, Nobumitsu Oide, Kai Kamada, Takeo Hyodo, and Yasuhiro Shimizu, “Improved toluene response of mixed-potential type YSZ-based gas sensors using CeO₂-added Au electrodes”, ECS Sensor Plus, Vol. 1, No. 1, Article No. 013604 (2022. 04.13). [doi: 10.1149/2754-2726/ac63d2]

4

Mehrdad Asgari, Fahimeh Hooriabad Saboor, Seyed Parsa Amouzesh, Martin Watt Coull, Abbas Ali Khodadadi, Yadollah Mortazavi, Takeo Hyodo, and Yasuhiro Shimizu, “Facile ultrasonic-assisted synthesis of SiO₂/ZnO core/shell nanostructures: A selective ethanol sensor at low temperatures with enhanced recovery”, Sensors and Actuators B, Vol. 368, Article No. 132187 (2022. 10). [doi: 10.1016/j.snb.2022.132187]

5

Takeo Hyodo, Toshiro Okusa, Wataru Sakata, Taro Ueda, and Yasuhiro Shimizu, “Impacts of surface modification of Pt-sensing electrodes with Au on hydrogen-sensing properties and mechanism of diode-type gas sensors based on anodized titania”, ACS Sensors (2022. 12). [doi: 10.1021/acssensors.2c01702]

一般講演

1

Takeo Hyodo, “Development of advanced gas-sensing devices based on the microstructural and compositional controls of various promising materials and their different operating mechanism”, Journal of the Ceramic Society of Japan, Vol. 130, pp. 739–751 (2022. 9). [doi: 10.2109/jcersj2.22071]

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2

��c���Y�CBoehme Inci�C���������C�����N���CWeimar Udo�CBarsan Nicolae�C“���E��In₂O₃�n�����̎�NO₂�Z���T�FAu�S�������������ɋy�ڂ����ʇU”�CChemical Sensors, Vol. 38, No. A (Proc. of the 70th Chemical Sensor Symp.), Web, pp. 37–39 (2022. 3). [https://chemsens.electrochem.jp/journal/2022/2022a-abt.html#13]

3

��z�E��C��c���Y�C���������C��ؑ��C�]�ˉ됰�C���c�@�C�C���������C�����N���C“�W���R�j�A�Z���T�̉”R���K�X�ɑ΂��锽���@�\�̉�”�CChemical Sensors, Vol. 38, No. B (Proc. of the 71st Chemical Sensor Symp.)�C���l�Cpp. 73–75 (2022. 9). [https://chemsens.electrochem.jp/journal/2022/2022b-abt.html#23]

4

��R�]���C��c���Y�C��������C�]���O���C�y��@�w�C���c�@�C�C���������C�����N���C“�J�`�I��������ƋM����d�ɂ�p���������쓮�”\��CO�Z���T�̊J��”�CChemical Sensors, Vol. 38, No. B (Proc. of the 71st Chemical Sensor Symp.)�C���l�Cpp. 79–81 (2022. 9). [https://chemsens.electrochem.jp/journal/2022/2022b-abt.html#25]

5

��c���Y�C“�@�\���Z���~�b�N�X�̃K�X���m�@�\�œK���ɂ�鍂���x�K�X�Z���T�̊J��”�CChemical Sensors, Vol. 38, No. B (Proc. of the 71st Chemical Sensor Symp.)�C���l�Cpp. 91–93 (2022. 9). [https://chemsens.electrochem.jp/journal/2022/2022b-abt.html#seimyama]

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