研究業績 (中寛史 )

原著論⽂（審査有）

1.

Ag(I)/TiO2 -Photocatalyzed N-Methylation of Amino Acids with Methanol
Yuna Morioka, Ivven Huang, *Susumu Saito, *Hiroshi Naka
ChemRxiv. Preprint (2020). (DOI: 10.26434/chemrxiv.12588266.v1)

2.

Transfer Hydration of Dinitriles to Diamides
Asuka Naraoka, *Hiroshi Naka
Synlett, 30, 1977–1980 (2019). (DOI: 10.1055/s-0039-1690026) (Invited Cluster)3.

Acceptor-Controlled Transfer Dehydration of Amides to Nitriles
Hiroyuki Okabe, Asuka Naraoka, Takahiro Isogawa, Shunsuke Oishi, *Hiroshi Naka
Org. Lett. 21, 4767–4770 (2019). (DOI: 10.1021/acs.orglett.9b01657)

4.

Catalytic Transfer Hydration of Cyanohydrins to alpha-Hydroxyamides
Tomoya Kanda, Asuka Naraoka, *Hiroshi Naka
J. Am. Chem. Soc. 141, 825−830 (2019). (Highlighted in Org. Process Res. Dev. 23, 114−121 (2019).)

5.

Pd-Catalyzed β-Selective C–H Arylation of Thiophenes with Triarylantimony Difluorides
Yuki Kitamura, Yuki Murata, Ayaka Oguri, Mio Matsumura, Naoki Kakusawa, *Hiroshi Naka, *ShujiYasuike
Asian J. Org. Chem. 8, 138−143 (2019).

6.

Pd/TiO2-Photocatalyzed Self-Condensation of Primary Amines to Afford Secondary Amines at AmbientTemperature
Lyu-Ming Wang, Kensuke Kobayashi, Mitsuhiro Arisawa, *Susumu Saito, *Hiroshi Naka
Org. Lett. 21, 341−344 (2019). (Highlighted in Front Cover.)7.

Photocatalytic N-Methylation of Amines over Pd/TiO2 for the Functionalization of Heterocycles andPharmaceutical Intermediates
Lyu-Ming Wang, Kellie Jenkinson, Andrew E. H. Wheatley, Keiko Kuwata, Susumu Saito, *Hiroshi NakaACS Sustainable Chem. Eng. 6, 15419–15424 (2018).

8.

Copper(II) Bis(Diethyldithiocarbamate) Induces the Expression of Syndecan-4, a Transmembrane HeparanSulfate Proteoglycan, via P38 MAPK Activation in Vascular Endothelial Cells
Takato Hara, Hiroko Tatsuishi, Tomomi Banno, Tomoya Fujie, Chika Yamamoto, Hiroshi Naka,*Toshiyuki KajiInt. J. Mol. Sci. 19, 3302 (2018).

9.

N-Alkylation of Functionalized Amines with Alcohols Using a Copper-Gold Mixed Photocatalytic System
Lyu-Ming Wang, Yuna Morioka, Kellie Jenkinson, *Andrew E. H. Wheatley, *Susumu Saito, *HiroshiNaka
Sci. Rep. 8, 6931 (2018).

10.

Photocatalytic Hydrogenolysis of Allylic Alcohols for Rapid Access to Platform Chemicals and Fine
Chemicals
Yuki Takada, Joaquim Caner, Hiroshi Naka, *Susumu Saito
Pure Appl. Chem. 90, 167–174 (2018). (invited conference paper)

11.

A Fluorinated Cobalt(III) Porphyrin Complex for Hydroalkoxylation of Alkynes
Richiro Ushimaru, Takuho Nishimura, Toshiki Iwatsuki, *Hiroshi Naka
Chem. Pharm. Bull. 65, 1000–1003 (2017).

12.

Photocatalytic Transfer Hydrogenolysis of Allylic Alcohols on Pd/TiO2: A Shortcut to (S)-(+)-Lavandulol
Yuki Takada, Joaquim Caner, Selvam Kaliyamoorthy, Hiroshi Naka, *Susumu Saito
Chem. - Eur. J.23, 18025–18032 (2017).

13.

Copper Diethyldithiocarbamate as an Inhibitor of Tissue Plasminogen Activator Synthesis in Cultured
Human Coronary Endothelial Cells
Tomoya Fujie, Shiori Okino, Eiko Yoshida, Chika Yamamoto, *Hiroshi Naka, *Toshiyuki Kaji
J. Toxicol. Sci.42, 553–558 (2017).

14.

A Versatile Synthesis of Triarylantimony Difluorides by Fluorination of Triarylstibanes with NitrosylTetrafluoroborate and Their Antitumor Activity
Yuki Kitamura, Mio Matsumura, Yuki Murata, Mizuki Yamada, Naoki Kakusawa, Motohiro Tanaka,Hiroyuki Okabe, *Hiroshi Naka, *Tohru Obata, *Shuji Yasuike
J. Fluorine Chem. 199, 1–6 (2017).

15.

Dehydrogenation of Primary Aliphatic Alcohols by Au/TiO2 Photocatalysts
Masaki Shibata, Ryoko Nagata, Susumu Saito, *Hiroshi Naka
Chem. Lett. 46, 580–582 (2017).

16.

Selective Hydrogenation of Arenes to Cyclohexanes in Water Catalyzed by Chitin-Supported Ruthenium
Nanoparticles
Yuna Morioka, Aki Matsuoka, Kellie Binder, Benjamin R. Knappett, *Andrew E. H. Wheatley, *Hiroshi
Naka
Catal. Sci. Technol. 6, 5801–5805 (2016).

17.

Copper Diethyldithiocarbamate as an Activator of Nrf2 in Cultured Vascular Endothelial Cells
Tomoya Fujie, Masaki Murakami, Eiko Yoshida, Tadashi Tachinami, Yasuhiro Shinkai, Yasuyuki
Fujiwara, Chika Yamamoto, Yoshito Kumagai, *Hiroshi Naka, *Toshiyuki Kaji
J. Biol. Inorg. Chem. 21, 263–273 (2016).

18.

Induction of Metallothionein Isoforms by Copper Diethyldithiocarbamate in Cultured VascularEndothelial Cells
Tomoya Fujie, Yukino Segawa, Tomoki Kimura, Yasuyuki Fujiwara, Chika Yamamoto, Masahiko Satoh,*Hiroshi Naka, *Toshiyuki Kaji
J. Toxicol. Sci. 41, 225–232 (2016).

19.

Zinc Diethyldithiocarbamate as an Inducer of Metallothionein in Cultured Vascular Endothelial Cells
Tomoya Fujie, Yukino Segawa, Akane Uehara, Takehiro Nakamura, Tomoki Kimura, Eiko Yoshida,
Chika Yamamoto, Masanobu Uchiyama, *Hiroshi Naka, *Toshiyuki Kaji
J. Toxicol. Sci. 41, 217–224 (2016).

20.

N-Methylation of Amines with Methanol at Room Temperature
Vasily N. Tsarev, Yuna Morioka, Joaquim Caner, Qing Wang, Richiro Ushimaru, Akihiko Kudo, HiroshiNaka, *Susumu Saito
Org. Lett. 17, 2530–2533 (2015).

21.

Hydration of Nitriles to Amides by a Chitin-supported Ruthenium Catalyst
Aki Matsuoka, Takahiro Isogawa, Yuna Morioka, Benjamin R. Knappett, *Andrew E. H. Wheatley,*Susumu Saito, *Hiroshi Naka
RSC Adv. 5, 12152–12160 (2015).

22.

Why p-Cymene? Conformational Effect in Asymmetric Hydrogenation of Aromatic Ketones with aη6-Arene/Ruthenium(II) Catalyst

Aki Matsuoka, Christian A. Sandoval, Masanobu Uchiyama, Ryoji Noyori, *Hiroshi Naka
Chem. Asian J. 10, 112–115 (2015).
23.

Synthesis of Propylene from Renewable Allyl Alcohol by Photocatalytic Transfer Hydrogenolysis
Joaquim Caner, Zijun Liu, Yuki Takada, Akihiko Kudo, Hiroshi Naka, *Susumu Saito
Catal. Sci. Technol. 4, 4093–4098 (2014).

24.

Activation of Cellular Defense Mechanism by Organic-Inorganic Hybrid Molecules
Tomoya Fujie, Hiroshi Naka, Chika Yamamoto, Yasuhiro Shinkai, Yoshito Kumagai, *Toshiyuki KajiYakugaku Zasshi 134, 813−815 (2014).

25.

Redox-Selective Generation of Aldehydes and H2 from Alcohols under Visible LightZijun Liu, Joaquim Caner, Akihiko Kudo, Hiroshi Naka, *Susumu Saito
Chem. - Eur. J. 19, 9452−9456 (2013). (Highlighted in Synfacts 9, 1138 (2013).)

26.

Hydration of Terminal Alkynes Catalyzed by Water-Soluble Cobalt Porphyrin Complexes
Tadashi Tachinami, Takuho Nishimura, Richiro Ushimaru, Ryoji Noyori, *Hiroshi Naka
J. Am. Chem. Soc. 135, 50−53 (2013).

27.

Acetals of N,N-Dimethylformamides: Ambiphilic Behavior in Converting Carbon Dioxide to Dialkyl
Carbonates
Yuki Takada, Aki Matsuoka, Ya Du, Hiroshi Naka, *Susumu Saito
Chem. Lett. 42, 146–147 (2013).

28.

Bis(L-cysteinato)zincate(II) as a Coordination Compound that Specifically Induces Metallothionein Gene
Transcription Without Inducing Cell-stress-related Gene Transcript*Tomoki Kimura, Kengo Yoshida, Chika Yamamoto, Minako Suzuki, Tomoko Uno, Masakazu Isobe,
Hiroshi Naka, Shuji Yasuike, Masahiko Satoh, Toshiyuki Kaji, *Masanobu Uchiyama
J. Inorg. Biochem. 117, 140−146 (2012).

29.

One-Pot Nitrile Aldolization/Hydration Operation Giving β-Hydroxy Carboxamides
Akihiro Goto, Hiroshi Naka, Ryoji Noyori, *Susumu Saito
Chem. Asian J. 6, 1740–1743 (2011).

30.

Generation of Arylzinc Reagents Through an Iodine–zinc Exchange Reaction Promoted by a Non-metallic
Organic Superbase*Hiroshi Naka, Keisuke Ito, Masahiro Ueno, Koji Kobayashi, *Yoshinori Kondo
New J. Chem. 34, 1700–1706 (2010).

31.

Chiral eta 6-Arene/N-Tosylethylenediamine–Ruthenium(II) Complexes: Solution Behavior and Catalytic
Activity for Asymmetric Hydrogenation*Christian A. Sandoval, Fusheng Bie, Aki Matsuoka, Yoshiki Yamaguchi, Hiroshi Naka, Yuehui Li,
Koichi Kato, Noriyuki Utsumi, Kunihiko Tsutsumi, Takeshi Ohkuma, Kunihiko Murata, *Ryoji Noyori
Chem. Asian J. 5, 806–816 (2010).

32.

SN2´ Reaction of Organozinc Reagents Activated by Catalytic tBu-P4 Base in the Presence of LiCl
Koji Kobayashi, Masahiro Ueno, Hiroshi Naka, *Yoshinori Kondo
Chem. - Eur. J. 15, 9805–9809 (2009).

33.

A Mixed Alkyl-amido Aluminate as a Kinetically Controlled Base*Hiroshi Naka, James V. Morey, Joanna Haywood, Dana Eisler, Mary McPartlin, Felipe García, Hironaga
Kudo, Yoshinori Kondo, *Masanobu Uchiyama, *Andrew E. H. Wheatley
J. Am. Chem. Soc. 130, 16193–16200 (2008).

34.

Catalytic Deprotonative Functionalization of Propargyl Silyl Ethers with Imines*Hiroshi Naka, Daiki Koseki, *Yoshinori Kondo
Adv. Synth. Catal. 350, 1901–1906 (2008).

35.

Chiral Bisphosphazides as Dual Basic Enantioselective Catalysts*Hiroshi Naka, Nobuhiko Kanase, Masahiro Ueno, *Yoshinori Kondo
Chem. - Eur. J. 14, 5267–5274 (2008).

36.

Organozinc Reagents in DMSO Solvent: Remarkable Promotion of SN2' Reaction for Allene Synthesis
Koji Kobayashi, Hiroshi Naka, Andrew E. H. Wheatley, *Yoshinori Kondo
Org. Lett. 10, 3375–3377 (2008).

37.

Activation of Organozinc Reagents with t-Bu-P4 Base for Transition Metal-free Catalytic SN2' Reaction
Koji Kobayashi, Hiroshi Naka, Andrew E. H. Wheatley, *Yoshinori Kondo
Chem. Commun. 3780–3782 (2008).

38.

Suppressing the Anionic Fries Rearrangement of Aryl Dialkylcarbamates; the Isolation of a Crystalline
ortho-Deprotonated Carbamate
Felipe García, Mary McPartlin, James V. Morey, Daisuke Nobuto, Yoshinori Kondo, Hiroshi Naka,*Masanobu Uchiyama, *Andrew E. H. WheatleyEur. J. Org. Chem. 644–647 (2008).

39.

Solid-phase Synthesis of Phthalocyanine and Tetraazaporphyrin Triangular Prisms
Atsuya Muranaka, Kengo Yoshida, Yusuke Akagi, Hiroshi Naka, Masanobu Uchiyama Yoshinori Kondo,*Nagao Kobayashi
Tetrahedron Lett. 49, 5084–5086 (2008).

40.

On the Kinetic and Thermodynamic Reactivity of Lithium Di(alkyl)amidozincate Bases in Directed Ortho
Metalation
Yoshinori Kondo, James V. Morey, Jacqueline C. Morgan, Hiroshi Naka, Daisuke Nobuto, Paul R.
Raithby, *Masanobu Uchiyama, *Andrew E. H. Wheatley
J. Am. Chem. Soc. 129, 12734–12738 (2007).

41.

Theoretical Studies on Ortho Oxidation of Phenols with Dioxygen Mediated by Dicopper Complex: Hints
for a Catalyst with the Phenolase Activity of Tyrosinase*Hiroshi Naka, Yoshinori Kondo, Shinya Usui, Yuichi Hashimoto, *Masanobu Uchiyama
Adv. Synth. Catal. 349, 595–600 (2007).

42.

An Aluminum Ate Base: Its Design, Structure, Function and Reaction Mechanism*Hiroshi Naka, *Masanobu Uchiyama, Yotaro Matsumoto, *Andrew E. H. Wheatley, Mary McPartlin,
James V. Morey, Yoshinori Kondo
J. Am. Chem. Soc. 129, 1921–1930 (2007).

43.

Fluorous Synthesis of Yuehchukene by alpha-Lithiation of Perfluoroalkyl-Tagged 1-(Arylsulfonyl)indolewith Mesityllithium
Hiroshi Naka, Yusuke Akagi, Kyoko Yamada, Tatsushi Imahori, Takahiro Kasahara, *Yoshinori Kondo
Eur. J. Org. Chem. 4635–4637 (2007).

44.

Nucleophilic Aromatic Substitution using Et3 SiH/cat. t-Bu-P4 as a System for Nucleophile Activation
Masahiro Ueno, Misato Yonemoto, Masahiro Hashimoto, Andrew E. H. Wheatley, Hiroshi Naka,*Yoshinori Kondo
Chem. Commun. 2264–2266 (2007).

45.

Reverse Photochromic Behavior of Iron-Magnesium Complex*Minoru Kobayashi, Akito Takashima, Tomohiko Ishii, Hiroshi Naka, Masanobu Uchiyama, *Kentaro
Yamaguchi
Inorg. Chem. 46, 1039–1041 (2007).

46.

Encapsulation of Hydride by Molecular Main Group Metal Clusters: Manipulating the Source andCoordination Sphere of the Interstitial Ion
Sally R. Boss, Martyn P. Coles, Vicki Eyre-Brook, Felipe García, Robert Haigh, Peter B. Hitchcock, Mary
McPartlin, James V. Morey, Hiroshi Naka, Paul R. Raithby, Hazel A. Sparkes, Christopher W. Tate,*Andrew E. H. WheatleyDalton Trans. 5574–5582 (2006).

47.

Regio- and Chemoselective Direct Generation of Functionalized Aromatic Aluminum Compounds Using
Aluminum Ate Base
*Masanobu Uchiyama, Hiroshi Naka, Yotaro Matsumoto, Tomohiko Ohwada
J. Am. Chem. Soc. 126, 10526–10527 (2004).

原著論⽂（審査無）

該当なし

総説

1.

Recent Advances in Transfer Hydration of Nitriles with Amides or Aldoximes*Hiroshi Naka and Asuka Naraoka
Tetrahedron Lett. 61, 151557 (2020). (DOI: 10.1016/j.tetlet.2019.151557) (Digest Paper)

著書

1.

アルコールとその誘導物質の電⼦的両性に着⽬した⼆酸化炭素の資源化法の開発
中寛史，斎藤進

⼆酸化炭素の直接利⽤最新技術, NTS, pp 103−113 (2013).
2.

Aluminum Halides
Hiroshi Naka, Susumu Saito
In Science of Synthesis Knowledge Updates, K. Ishihara Ed.; Thieme: Stuttgart, Vol.2010/4, Section
7.1.3.18, pp 79−92 (2011).

3.

Aluminum Hydrides
Hiroshi Naka, Susumu Saito
In Science of Synthesis Knowledge Updates, K. Ishihara Ed.; Thieme: Stuttgart, Vol. 2010/4, Section
7.1.2.44, pp 69−77 (2011).

特許

1.

アルケニルアルミニウムの製法及び置換アルケン化合物の製法，発明者：中野依2.

眞輔，良治，出願⼈：名古屋⼤学，番号：特願 2014-45342，出願年⽉⽇：2014 年 3 ⽉ 7 ⽇.

３級アミン⼜は３級アミン誘導体の製造⽅法，発明者：野依リョフ

寛史，岩⽥ヴァシリー

ニコラエヴィチ，カナー良治，斎藤

カザデモント学，番号：特願 2013-213167，出願年⽉⽇：2013 年 10 ⽉ 10 ⽇.

進，中寛史，ツァジョアキム，出願⼈：名古屋⼤3.

有機化合物の製造⽅法，発明者：野依良治，斎藤進，中寛史，カナーカザデモント

ジ⾃軍，出願⼈：名古屋⼤学，番号：特願 2013-193470，出願年⽉⽇：2013 年 9 ⽉

ョアキム，劉18 ⽇.
4.

環状ウレタンの製造⽅法，発明者：野依良治，斎藤寛史，Siong Wan Foo，出願⼈：進，中名古屋⼤学，番号：特願 2013-65083，出願年⽉⽇：2013 年 3 ⽉ 26 ⽇.
5.

カルボニル化合物の製造⽅法，発明者：野依ザデモント

ジョアキム，⼯藤良治，斎藤進，中寛史，劉⾃軍，カナー

カ昭彦，出願⼈：名古屋⼤学，番号：特願 2012-181888, 出願年⽉⽇：2012 年 8 ⽉ 20 ⽇.
6.

脂肪細胞分化抑制剤，発明者：⼩野寺
安池章，佐藤雅彦，内⼭真伸，伊藤徳夫，中寛史，修之，出願⼈：神⼾学院⼤学，愛知学院⼤学，番号：特願 2012-107557，出願年⽉⽇：2012

年 5 ⽉ 9 ⽇.
7.

環状ウレタンの製造⽅法，発明者：斎藤進，野依良治，中寛史，⼭崎祐輔，⾼⽥雄貴，

出願⼈：名古屋⼤学，番号：特願 2012-70113，出願年⽉⽇：2012 年 3 ⽉ 26 ⽇.
8.

環状ウレタンの製造⽅法，発明者：斎藤進，野依良治，中寛史，⼭崎祐輔，フーショ

ンワン，出願⼈：名古屋⼤学，番号：特願 2012-28845，出願年⽉⽇：2012 年 2 ⽉ 13 ⽇.
9.

⾼級アミンの製造⽅法，発明者：野依良治，斎藤進，中寛史，ドゥヤ，出願⼈：名古屋⼤学，番号：特願 2010-208526，出願年⽉⽇：2010 年 9 ⽉ 16 ⽇.
10.

炭酸エステルの製造⽅法，発明者：野依良治，斎藤進，中寛史，⼭崎祐輔，ドゥヤ，

出願⼈：名古屋⼤学，番号：特願 2010-203712，出願年⽉⽇：2010 年 9 ⽉ 10 ⽇.
11.

ピロールの製造⽅法，発明者：野依良治，斎藤進，中寛史，⼩瀬修，安藤潤紀，出願

⼈：名古屋⼤学，番号：特願 2010-49823，出願年⽉⽇：2010 年 3 ⽉ 5 ⽇.
12.

⼆量体の製造⽅法，発明者：野依良治，斎藤進，中寛史，⼩瀬修，安藤潤紀，出願⼈：

名古屋⼤学，番号：特願 2010-49735，出願年⽉⽇：2010 年 3 ⽉ 5 ⽇.
13.

モノアミンの製造⽅法，発明者：野依良治，斎藤進，中寛史，ザオ インシェン，出願⼈：名古屋⼤学，番号：特願 2010-1557，出願年⽉⽇：2010 年 1 ⽉ 6 ⽇.
14.

アルコールの製造⽅法及びアルコール⼆量化反応⽤触媒，発明者：野依史，⼩瀬修，三浦良治，斎藤進，中寛隆志，出願⼈：名古屋⼤学，番号：特願 2009-299231，出願年⽉⽇：2009

年 12 ⽉ 28 ⽇.
15.

炭酸エステルの製造⽅法，発明者：野依ヤ

16.

良治，斎藤進，中寛史，⾓間⾼熱安定性を有する機能性フォスファジド，発明者：根東解説記事

銅錯体を起点としたバイオオルガノメタリクス
中寛史

理⼤科学フォーラム，403, 8–9 (2018).
2.

⿎動する有機化学反応
中寛史

化学，72 (5), 62−63 (2017).
3.

分⼦触媒プロセスの開発と GRRM 法
中祐輔，ドウ，出願⼈：名古屋⼤学，番号：特願 2009-295911，出願年⽉⽇：2009 年 12 ⽉ 25 ⽇.
義則，中東北⼤学，番号：特願 2008-193767，出願年⽉⽇：2008 年 7 ⽉ 28 ⽇.

1.

⾹澄，⼭崎寛史

IQCE-NEWS，23, 1 (2015).

寛史，下哲也，出願⼈：

4.

分⼦触媒化学の新潮流
中寛史

名古屋⼤学物質科学国際研究センターニュース，15, 11 (2015).
5.

ベンゼン環とフッ素をつなぐ触媒反応
中寛史

化学，65(3), 62−63 (2010).
6.

Global COE-RCMS 有機化学国際シンポジウムおよび第 6 回平⽥記念レクチャー
中寛史

名古屋⼤学物質科学国際研究センターニュース，11, 10 (2010).
7.

ロバストな分⼦触媒プロセスの開発を⽬指して中寛史

名古屋⼤学物質科学国際研究センターニュース，10, 20–21 (2009).
招待講演（国際）

1.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Department
Seminar, Nov 19, 2019, Nanjing University of Science and Technology, China.

2.

“Transfer (De)hydration Catalysis” Core-to-Core Symposium “Elements Function for Transformative
Catalysis and Materials” Feb 7−8, 2019, Nagoya University, Nagoya.

3.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Chemistry
Department Seminar, Jan 31, 2019, Dalhousie University, Canada.

4.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” McGill Chemical
Society Seminar, Jan 30, 2019, McGill University, Canada.

5.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Chemistry
Department Seminar, Jan 28, 2019, Queen’s University, Canada.

6.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Special
Department Seminar, Jan 25, 2019, University of Ottawa, Canada.

7.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Special Chemistry
Seminar, Jan 24, 2019, University of Toronto, Canada.

8.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Department
Seminar, Jan 23, 2019, University of Alberta, Canada.

9.

“(Photo)catalytic Conversion of Water and Alcohols for Selective Chemical Synthesis” Organic Seminar,Jan 21, 2019, University of British Colombia, Canada.

10.

“Photocatalytic Conversion of Alcohols for Selective Chemical Synthesis” ACP Lectureship Award
Seminar, Aug 10, 2017, Nanyang Technological University, Singapore.

11.

“Photocatalytic Conversion of Alcohols for Selective Chemical Synthesis” ACP Lectureship Award
Seminar, Aug 8, 2017, National University of Singapore, Singapore.

12.

"Catalytic Transformation of Alcohols for Selective Organic Synthesis" Intergroup Seminar at theLaboratory of Organic Chemistry, April 28, 2015, ETH Zurich, Switzerland.

13.

"A Step Towards Robust Hydration of Organic Compounds Through Molecular Catalysis" 11th IRTG Joint
Symposium, May 9–10, 2011, University of Muenster, Muenster, Germany.

14.

"Lithium Aluminate Bases for Selective Organic Synthesis" Pacifichem2010 (Early Main Group
Chemistry section #100-1A), Dec 15−20, 2010, Honolulu, Hawaii, USA.

15.

"Cobalt-Catalyzed Hydration of Alkynes: Toward Robust Transformation of Small Molecules ThroughMolecular Catalysis" The 4th International G-COE Chem6 Symposium for Emergence of New Molecular
Chemistry, Mar 2, 2010, Tokyo Institute of Technology, Tokyo.

16.

"Creating Functionalized Aromatic Compounds Using Ate Complexes" International Research Training
Group "Complex Functional Systems in Chemistry" Muenster (GER) - Nagoya (JPN) Lectureship, Jan 21,2010, University of Muenster, Muenster, Germany.

招待講演（国内）

1.

触媒と反応場の制御による官能基選択的⽔和反応の開拓，有機合成化学セミナー (令和元年度有機合成化学奨励賞受賞講演)，2020 年 9 ⽉ 16–18 ⽇，JMS アステールプラザ，広島 (予定).

2.

光触媒粉末を⽤いる有機合成反応，2019 年度第 2 回省エネルギーに貢献する粒⼦設計•粉体プロ
セスの薬⼯連携ワークショップ，2019 年 12 ⽉ 20 ⽇，⼗六プラザ，岐⾩.

3.

⼈の⽣き⽅を変える化学，名古屋市⽴向陽⾼校模擬授業，2019 年 10 ⽉ 31 ⽇，向陽⾼校，名古屋．

4.

⽔とアルコールを使った(光)触媒的合成化学，京⼤⼈環物質機能相関論セミナー，2019 年 10 ⽉16 ⽇，京都⼤学，京都．

5.

⾯⽩い化学反応，名古屋⼤学 GTR リトリート合宿，2019 年 6 ⽉ 22 ⽇，鈴⿅．

6.

⽔とアルコールを使った(光)触媒的合成化学，京⼤⼈環 分⼦環境相関論ウインターセミナー2018,2018 年 12 ⽉ 21 ⽇，京都⼤学，京都.

7.

頑健な錯体分⼦によるバイオオルガノメタリクス，研究領域複合型セミナー, 2018 年 12 ⽉ 7 ⽇，
東邦⼤学，千葉．

8.

光触媒反応で重薬をつくる，第⼀回重⽔素材料研究会，2018 年 7 ⽉ 10 ⽇，名古屋⼯業⼤学，名古屋.

9.

⽔の分⼦変換化学，講演会〜分⼦変換の深化〜，2018 年 3 ⽉ 31 ⽇，東北⼤学，仙台.

10.

⽔で有機物質をつくる，JPIJS 関⻄地区討論会，2017 年 11 ⽉ 2 ⽇，静岡⼤学浜松キャンパス，浜松.

11.

アルコールの光触媒変換に基づく合成化学，若い世代が創る次世代型分⼦触媒の開発とその展望，
2016 年 11 ⽉ 10 ⽇，分⼦科学研究所，岡崎.

12.

⽔と⽔素を使う触媒的合成化学，IQCE 講演会「量⼦化学で探る化学の最先端 2016」，2016 年 11⽉ 19 ⽇，東京⼤学，東京.

13.

アルコールの光触媒変換による合成化学，⽇本薬学会東海⽀部特別講演会，2014 年 7 ⽉ 11 ⽇，愛知学院⼤学，名古屋.

14.

⽔分⼦の⾃在変換反応を⽬指して：コバルト触媒による末端アルキンの⽔和反応 ，平成 21 年度
北陸⼤学学術フロンティア年次研究集会・総括集会，2010 年 3 ⽉ 16-17 ⽇, 北陸⼤学，⾦沢．

15.

分⼦触媒に基づく⾃在変換化学，北陸⼤学学術フロンティア特別講演会，2010 年 1 ⽉ 29 ⽇，北陸⼤学，⾦沢.
16.

創薬化学を⽀える分⼦触媒の設計を⽬指して ，⽇本薬学会東海⽀部特別講演会，2009 年 12 ⽉

7 ⽇, 愛知学院⼤学，名古屋.
17.

量⼦化学計算に基づく⾦属アート錯体を⽤いた反応機構解析・新反応開発 ，東北⼤学 GCOE 分⼦系⾼次構造体化学国際教育研究拠点講演会，2008 年 3 ⽉ 7 ⽇，東北⼤学，仙台．