2.

3. Modulating the chromophores   of metal-covalent organic frameworks for boosting low-concentration CO₂   photoreduction

Chong-Jiu Lu, Ji-Hong Zhang,   Jian-Hua Mei, Yun-Nan Gong,* Tong-Bu Lu, and Di-Chang Zhong*

Angew. Chem. Int. Ed.,   2025, 64, e202505292.

TOC

4. Intermarriage of InVO₄   and BiVO₄ via cation-exchange to boost charge separation for   efficient photocatalytic CH₄ oxidation to oxygenates

Guang-Xing Dong†, Meng-Ran   Zhang† , Cheng-Cheng Jiao, Zhao-Lei Liu, Ke Su, Min Zhang* & Tong-Bu Lu*

Sci. China Chem., 2025, 68, .

5. Continuous photocatalytic C–C   coupling achieved using palladium anchored to a covalent organic framework

Chao Ma,‡ Zhe Wu,‡ Yi-Tong   Hou,‡ Shao-Xuan Xiong, Li-Hua Ma,* Zhi-Ming Zhang, Tong-Bu Lu and Song Guo*

Chem. Commun., 2025, .

6. In situ growth of   metal-organic layer on polyoxometalate-etching Cu₂O to boost CO₂   reduction with high stability

Yu-Jie Wang, Xin Cheng,   Na-Na Ma, Wei-Yi Cheng, Peng Zhang, Fang Luo, Wen-Xiong Shi, Shuang Yao,   Tong-Bu Lu, and Zhi-Ming Zhang*

Angew. Chem. Int. Ed., 2025, 64, e202423204.

7. Hydrogen-bonded organic   frameworks for photocatalytic synthesis of hydrogen peroxide

Ji-Hong Zhang, Zhao-Ming Ge,   Juan Wang, Di-Chang Zhong* & Tong-Bu Lu

Nat. Commun., 2025,   16:2448.

8. Identifying the key   photosensitizing factors over metal–organic frameworks for selective control of   ¹O₂ and O₂^•- generation

Xiao-Liang Ma⁺,   Li-Hua Ma⁺, Song Guo,* Zhi-Ming Zhang, and Tong-Bu Lu

Angew. Chem. Int. Ed., 2025, 64, e202423157.

9. Unlocking one-step   two-electron oxygen reduction via metalloid boron- modified Zn₃In₂S₆   for efficient H₂O₂ photosynthesis

Ji-Li Zhou, Yan-Fei Mu,*   Meng Qiao, Meng-Ran Zhang, Su-Xian Yuan, Min Zhang,* and Tong-Bu Lu*

Angew. Chem. Int. Ed., 2025, e202506963.

10. Electroreduction of diluted   CO₂ to multicarbon products with high carbon utilization at 800 mA   cm^-2 in strongly acidic media

Xue-Rong Qin†, Jing-Jing   Li†, Lin-Lin Wang†, Guo-Jin Feng, Huan Liu, Zuo-Tao Yang, Xuan-Xuan Cheng,   Chao Zhang, Zi-You Yu*, and Tong-Bu Lu*

Nat. Commun., 2025,   16:4447.

11. Self-photosensitizing cobalt   complexes for photocatalytic CO₂ reduction coupled with CH₃OH   oxidation

Ji-Hong Zhang+, Zhao-Ming   Ge+, Di-Chang Zhong,* Jing-Lin Zuo, Marc Robert,* and Tong-Bu Lu*

Angew. Chem. Int. Ed., 2025, e202506060.

12. Precise synthesis of   dual-atom catalysts for better understanding the enhanced catalytic   performance and synergistic mechanism

Di-Chang Zhong, Yu-Chen   Wang, Mei Wang, and Tong-Bu Lu*

Acc. Chem. Res.,   2025, 58, 1379-1391.

13. Recent advances in MOF-based   dual-atom catalysts for CO₂ reduction

Wen-Jie Shi and Tong-Bu Lu*

Chem. Eur. J., 2025, 31,   e202500636.

14. Recent progress in   metal-organic frameworks (Part II—material application)

Jiandong Pang^†,   Wentao Jiang^†, Xue-Wen Zhang^†, Hao-Long Zhou^†,   Yuxiu Sun^†, Wei Gong^†, Bin Wang^†, Fuyin Ma^†,   Linwei He^†, Long Chen^†, Qiang Chen^†, He-Qi   Zheng^†, Yuanjing Cui^†, Wen-Jie Shi^†, Chao   Zhang^†, Mei Wang^†, Yue-Biao Zhang*, Jie-Peng Zhang*,   Chongli Zhong*, Yong Cui*, Shuao Wang*, Jian-Rong Li*, Guodong Qian*, Tong-Bu   Lu*, Huan Pang* & Xian-He Bu*

Sci. China Chem.,   2025, 68, 1642-1702.

15. High-selectivity   electroreduction of low-concentration CO₂ with large concentration   fluctuation

Mengyu Qi^†,   Yanbin Ma^†, Chao Zhang, Bingwei Li, Xueqing Yang, Zhaolin Shi,   Simeng Liu, Changhua An, Jiqing Jiao* & Tongbu Lu*

Sci. China Chem.,   2025, 68, 1620-1626.

16. Boosting photocatalytic CO₂-to-CO   conversion using a biomimetic dinuclear Co(II) complex through an HCO₃⁻-mediated   pathway

Yuchen Wang, Wenjie Shi*,   Weixue Tao, Jihong Zhang, Di-Chang Zhong* & Tongbu Lu*

Sci. China Chem.,   2025, 68, 974-949.

17. Metal-organic frameworks with   dinuclear metal centers for synergistically boosting CO₂   photoreduction

Hui-Feng Wang, Wen-Jie Shi ,   Yu-Xin Yang , Bao-Xia Dong*, Tong-Bu Lu & Di-Chang Zhong*

Sci. China Chem.,   2025, 68, 201-208.

18. Direct electroreduction of   low-concentration CO₂: progress and perspective

Jing-Jing Li,∇ Xue-Rong Qin,∇ Xiao-Ran Wang,   Lin-Lin Wang, Zi-You Yu,* and Tong-Bu Lu*

ACS Nano, 2025, 19,   10620-10629.

19. Tailoring lewis acidity of   metal oxides on nickel to boost electrocatalytic hydrogen evolution in   neutral electrolyte

Lin-Lin Wang,§ Xiao-Ran   Wang,§ Hong-Juan Wang,§ Chong Zhang,§ Jing-Jing Li, Guo-Jin Feng, Xuan-Xuan   Cheng, Xue-Rong Qin, Zi-You Yu,* and Tong-Bu Lu*

J. Am. Chem. Soc., 2025,   147, 7555-7563.

TOC

20. Small-size Au nanoparticles   anchored on pyrenyl-graphdiyne for N₂ electroreduction

Chang Liu, Chao Zhang,   Tong-Bu Lu*

Chin. J. Inorg. Chem., 2025,   41, 174-182.

21. Product control in   visible-light-driven CO₂ reduction by switching metal centers of   binuclear catalysts

Chao Su, Hai-Hua Huang,   Zubing Huang, Zilu Chen,* Anna Mo, Jia-Wei Wang, Huancheng Hu, Huahong Zou, Zhuofeng   Ke, Fupei Liang,* Tong-Bu Lu,* and Dongcheng Liu*

ACS. Catal., 2025, 15,   2522-2530.

22. Polymer-assisted in-situ   growth of Cs₃Sb₂B_r9 on Co₃O₄   to boost sacrificial-agent-free photocatalytic CO₂ reduction

Ke Su, Su-Xian Yuan,   You-Xiang Feng, Guang-Xing Dong, Yan-Fei Mu, Min Zhang* , Tong-Bu Lu*

Rare Metals, 2025,   44, 3194-3205.

23. Constructing S-scheme   heterojunction Cs₃Bi₂Br₉/BiOBr via in-situ   partial conversion to boost photocatalytic N₂ ffxation

An-Di Ren, Zhao-Lei Liu,   Su-Xian Yuan , Min Zhang*, Tong-Bu Lu

J. Colloid Int. Sci.,   2025, 678, 1203-1212.

24. Constructing strong built-in   electric field in lead-free halide-perovskite-based heterojunction to boost   charge separation for efficient CO₂ photoreduction

Zhao-Lei Liu, Yan-Fei Mu,   Xi-Rui Li, You-Xiang Feng, Min Zhang*, Tong-Bu Lu*

Appl. Catal. B: Environ. Energy, 2025, 366, 125012.

25. Direct partial transformation of 2D antimony oxybromide to halide   perovskite heterostructure for efficient CO₂ photoreduction

Su-Xian Yuan, Ke Su,   Meng-Ran Zhang, You-Xiang Feng, Yu Li,* Min Zhang,* and Tong-Bu Lu

Small, 2025, 21, 2409909.

26. A versatile self-templating   approach for constructing ternary halide perovskite heterojunctions to   achieve concurrent enhancement in photocatalytic CO₂ reduction   activity and stability

Meng-Ran Zhang, You-Xiang   Feng,* Zhao-Lei Liu, Ke Su, Su-Xian Yuan, Min Zhang,* and Tong-Bu Lu*

Adv. Funct. Mater.,   2025, 2423656.

27. Sun-simulated-driven   production of high-purity methanol from carbon dioxide

Jiqing Jiao*, Yanbin Ma,   Xiaoqian Han, Awu Ergu, Chao Zhang, Pingping Chen, Wei Liu, Qiquan Luo,   Zhaolin Shi, Han Xu, Chen Chen, Yaguang Li*, and Tong-Bu Lu*

Nat. Commun., 2025,   16, 857.

28. MOF-based dual-layer   pickering emulsion: molecular-level gating of water delivery at water-oil   interface for efficient photocatalytic hydrogenation using H₂O as   a hydrogen source

Kuo Yuan,* Ying Zhang,   Zhuang Yan, Qinbai Yun, Tianqun Song, Jun Guo, Jie Feng, Zheng Chen, Xiaotao   Zhang, Zhiyong Tang, Wenping Hu, Tongbu Lu*

Angew. Chem. Int. Ed., 2025,   e202421341.

29. Boosting the durability of   RuO₂ via confinement effect for proton exchange membrane water   electrolyzer

Wen-Xing Zheng†, Xuan-Xuan   Cheng†, Ping-Ping Chen†, Lin-Lin Wang, Ying Duan, Guo-Jin Feng, Xiao-Ran   Wang, Jing-Jing Li, Chao Zhang, Zi-You Yu* , and Tong-Bu Lu*

Nat. Commun., 2025,   16, 337.

30. Pyrrolic nitrogen coordinated   Ni²⁺ dual-atom catalyst for boosting CO₂ electroreduction

Zhi-Wei Chen, Hong-Juan   Wang, Chang Liu, Xiu-Li Lu, and Tong-Bu Lu*

Sci. China Chem.,   2025, 68, 570-579.