Chinese scientists had achieved site - and spatial - selective integration of earth-abundant metal ions in semiconductor quantum dots (QDs) for efficient and robust photocatalytic H2 evolution from water .

Research team of CHEN Yong achieved excitation wavelength-tunable circularly polarized luminescence (Ex-De CPL) by controlling metallophilic interactions in chiral gold(I) double salts (RC-A and SC-A).

Joint research team led by Prof. LIU Jing proposed a concept termed as “lightweight liquid metal entity” and invented a group of lightweight liquid metal materials.

Prof. JIANG Lei's team have recently shown how the apex structure in plant leaves controls water drainage and confers an evolutionary advantage.

Prof. JIANG Lei's team proposed two approaches to study both the neural signals in biological systems by THz responses and the quantum-confined ion superfluid in artificial systems by THz responses.

Prof. LIU Jing from TIPC published a cutting edge book Advanced Liquid Metal Cooling for Chip, Device and System to interpret the latest top cooling technologies. It is the first ever book to summarize the core principles and practical applications of a brand-new advanced chip cooling category: Liquid metal cooling.

Prof. WANG Naixing’s research group from TIPC found that azaarenes and ethers can directly undergo a coupling reaction under the catalysis of rare earth catalyst, by using di-tert-butyl peroxide as a radical initiator.

Researchers from the TIPC-CAS, Shanghai Jiao Tong University and the University of Utah reported their work on achieving enhanced membrane intercalation.

LIN Zheshuai’s research group from TIPC has published a review article to systematically summarized their original contribution to the development of deep-UV and mid-IR NLO crystals.

Aiming to further improve the salinity gradient energy conversion performance, Prof. WEN Liping’s research team adopted natural silk as the membrane components.

Recently, professor LIU Jing's team has successfully developed a magnetic liquid metal (Fe-EGaIn) based multifunctional electronics for remote self-healing materials, degradable electronics and thermal transfer printing. This research has been published in Advanced Science.

Chinese researchers have new development on direct water-writable and electro-erasable patterns realized on PEDOT inverse opals.