Area of research
Organic Chemistry · Materials Chemistry
Research interest
Research interests include Fullerene Chemistry and Applications, Perovskite Materials and Applications, Graphene research and applications, and Conducting polymers and applications.
Breaking the Scaling Relationship in Water Oxidation Enabled by the Electron Buffering Effect of the Fullerene Network
Synergistic Self‐Assembled Monolayers Reinforce Buried Interface Anchoring for High‐Efficiency Tandem Perovskite Solar Cells
Fullerene Network‐Buffered Platinum Nanoparticles Toward Efficient and Stable Electrochemical Ammonia Oxidation Reaction for Hydrogen Production
Accessing Metal‐Containing Species in Tin–Lead Perovskite Precursor Solutions via Molecular Strategies Guided by the Hard–Soft Acid–Base Principle
Fabricate the Compressive-Strained Perovskite Solar Cells through the Lattice-Matching Chelation
A chlorinated copolymer donor demonstrates a 18.13% power conversion efficiency
Progress of the key materials for organic solar cells
Perovskite-based tandem solar cells
Fused-ring phenazine building blocks for efficient copolymer donors
CsPb(I Br1−)3 solar cells
Chlorination‐Promoted Cage Transformation of IPR C<sub>92</sub> Discovered via Trifluoromethylation under Formation of Non‐classical C<sub>92</sub>(<i>NC</i>)(CF<sub>3</sub>)<sub>22</sub>
Carbon–Oxygen‐Bridged Ladder‐Type Building Blocks for Highly Efficient Nonfullerene Acceptors
26 mA cm−2 Jsc from organic solar cells with a low-bandgap nonfullerene acceptor
Skeletal Transformation of a Classical Fullerene C<sub>88</sub> into a Nonclassical Fullerene Chloride C<sub>84</sub>Cl<sub>30</sub> Bearing Quaternary Sequentially Fused Pentagons
Experimental and Theoretical Approach to Variable Chlorination-Promoted Skeletal Transformations in Fullerenes: The Case of C<sub>102</sub>
New Giant Fullerenes Identified as Chloro Derivatives: Isolated-Pentagon-Rule C<sub>108</sub>(1771)Cl<sub>12</sub> and C<sub>106</sub>(1155)Cl<sub>24</sub> as well as Nonclassical C<sub>104</sub>Cl<sub>24</sub>
New Isolated‐Pentagon‐Rule and Skeletally Transformed Isomers of C<sub>100</sub> Fullerene Identified by Structure Elucidation of their Chloro Derivatives
New Isolated‐Pentagon‐Rule and Skeletally Transformed Isomers of C<sub>100</sub> Fullerene Identified by Structure Elucidation of their Chloro Derivatives
Chlorination‐Promoted Skeletal‐Cage Transformations of C<sub>88</sub> Fullerene by C<sub>2</sub> Losses and a CC Bond Rotation
C<sub>100</sub> is Converted into C<sub>94</sub>Cl<sub>22</sub> by Three Chlorination‐Promoted C<sub>2</sub> Losses under Formation and Elimination of Cage Heptagons
Two Successive C<sub>2</sub> Losses from C<sub>86</sub> Fullerene upon Chlorination with the Formation of Non‐classical C<sub>84</sub>Cl<sub>30</sub> and C<sub>82</sub>Cl<sub>30</sub>
Unusual Chlorination Patterns of Three IPR Isomers of C<sub>88</sub> Fullerene in C<sub>88</sub>(7)Cl<sub>12/24</sub>, C<sub>88</sub>(17)Cl<sub>22</sub>, and C<sub>88</sub>(33)Cl<sub>12/14</sub>
Chlorination of IPR C<sub>100</sub> Fullerene Affords Unconventional C<sub>96</sub>Cl<sub>20</sub> with a Nonclassical Cage Containing Three Heptagons
Structures of Chlorinated Fullerenes, IPR C<sub>96</sub>Cl<sub>20</sub> and Non‐classical C<sub>94</sub>Cl<sub>28</sub> and C<sub>92</sub>Cl<sub>32</sub>: Evidence of the Existence of Three New Isomers of C<sub>96</sub>
Chlorination of IPR C<sub>100</sub> Fullerene Affords Unconventional C<sub>96</sub>Cl<sub>20</sub> with a Nonclassical Cage Containing Three Heptagons
Cage Shrinkage of Fullerene via a C<sub>2</sub> Loss: from IPR C<sub>90</sub>(28)Cl<sub>24</sub> to Nonclassical, Heptagon-Containing C<sub>88</sub>Cl<sub>22/24</sub>
The first structural confirmation of a C102 fullerene as C102Cl20 containing a non-IPR carbon cage
First Isomers of Pristine C<sub>104</sub> Fullerene Structurally Confirmed as Chlorides, C<sub>104</sub>(258)Cl<sub>16</sub> and C<sub>104</sub>(812)Cl<sub>24</sub>
Synthesis, Structure, and Theoretical Study of Trifluoromethyl Derivatives of C<sub>84</sub>(23) Fullerene
Trifluoromethyl and Chloro Derivatives of a Higher Fullerene <i>D</i><sub>2</sub>-C<sub>80</sub>(2): C<sub>80</sub>(CF<sub>3</sub>)<sub>12</sub> and C<sub>80</sub>Cl<sub>28</sub>