- Research Article
- 10.1016/j.molstruc.2026.145788
Water-bridged supramolecular polymer assembled by self-complementary organic carboxylate anion as building block
- Jun 01, 2026
- Journal of Molecular Structure
- Xuemin Bai + 7 more +7
Publications from 2021 to 2026
Showing 10 of 977 papers
Water-bridged supramolecular polymer assembled by self-complementary organic carboxylate anion as building block
Preparation of CdIn2S4/Poly (barbituric acid) inorganic/organic S-scheme heterojunction with spatially separated reaction sites for photocatalytic H2O2 production
Implementation of Peres gate encoding leveraging photonic polarization and orbital angular momentum degrees of freedom
Microplastic removal in constructed wetlands: current research status, removal mechanisms, and future perspectives
Substrate control and carrier bioaugmentation stabilize the electrocatalytic-Anammox process for sustainable nitrogen removal
A secure GNN-MADDPG framework with combinatorial action optimization for task offloading in vehicular networks
The role of Na+ in tuning the phase stability and functional properties of K0.5Na0.5NbO3: A first-principles study
Study on photocatalytic oxidation and its mechanism in a coexisting system of dyes and Fiber microplastics
Highly thermoconductive yet insulative, emissive, and reflective: a scalable encapsulation film for synergistic photovoltaic cooling
Encapsulation films play a pivotal role in photovoltaic (PV) modules of solar panels. However, most commercial encapsulation films exhibit notably low thermal conductivity, which impedes heat dissipation, particularly during summer. consequently, heat accumulation within the modules reduces their power generation efficiency and shortens service life. Herein, a novel strategy is proposed to fabricate a composite encapsulation film that enhances heat conduction and thermal radiation capacity in PV modules. The composite film features high thermal conductivity (5.93 W m− 1 K− 1), strong infrared emissivity (95.49%), enhanced solar reflectivity (90.25%), and excellent electrical insulation (2.35 × 1014 Ω·cm). Under direct summer sunlight, it enables an average temperature reduction of 4.1 °C and a real-time operating voltage increase of 9.7 mV. Additionally, the maximum power output of the PV module is improved by 13.49% under one-sun irradiation of 1 kW m− 2. Moreover, the composite film exhibits encapsulation performance on par with conventional encapsulants, without altering the existing mature structure and functionality of PV modules. Thus, this work provides a viable solution for solar energy deployment, especially in hot summer climates.
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