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Verified CAS / Academic Author2 Decoded Studies

Prof. GONG Qing

Urumqi Institute of Desert Meteorology, China Meteorological Administration, Urumqi 830002, China

Research Publications & English Decoded Briefs

Showing 2 publications
Acta Energiae Solaris Sinica2026DOI: 10.19912/j.0254-0096.tynxb.202608_9686

Long-Term Variability of Solar Radiation over an Oasis on the Southern Margin of the Taklimakan Desert, 1961–2023

This study quantitatively analyzes the temporal variability of global solar radiation and its attenuation under different sky conditions in Hotan City, an oasis on the southern margin of the Taklimakan Desert, using monthly and hourly global radiation, temperature, cloud cover, precipitation, and weather phenomenon records from the Hotan National Reference Climatological Station for 1961–2023. The results show that Hotan possesses abundant and stable solar energy resources. Annual global solar radiation exhibits a fluctuating upward trend with a climatic tendency rate of +7.03 MJ/m² per decade, driven primarily by sustained warming and a reduction in dust weather. The annual mean global radiation is 5946.57 MJ/m², with an annual amplitude of 2473.28 MJ/m² and a maximum of 7333.62 MJ/m² in 2017. Mann-Kendall tests identify a significant decline from 1961 to 1986 at −364.01 MJ/m² per decade (α = 0.01), followed by a significant increase from 1987 to 2023 at +147.55 MJ/m² per decade (α = 0.05). Seasonal contributions follow summer (33%) > spring (29%) > autumn (23%) > winter (15%). Monthly radiation is unimodal, peaking in June at 697.21 MJ/m² and reaching a minimum in December. Diurnal radiation is low in the morning and evening and high at midday, with the maximum generally occurring at 13:00 local time. Precipitation, overcast, and cloudy days produce the most pronounced attenuation of global solar radiation. These findings confirm that Hotan’s solar resource is highly abundant and stable, supporting large-scale, sustained development.

SCIENCE CHINA Materials2026DOI: 10.1007/s40843-025-4065-6

Poison-proofing platinum nanocatalysts with nitrogen for industrial-scale seawater splitting

Industrial-scale hydrogen production from seawater is a paramount goal for a sustainable energy future, yet it is severely hampered by the rapid deactivation of electrocatalysts under harsh operating conditions. Here, we introduce a robust self-supporting aerogel catalyst designed to address the two intertwined challenges of activity and stability in high-current-density seawater electrolysis. Our strategy involves creating strong metal-support interactions by anchoring ultrasmall platinum nanoparticles onto a porous N-doped carbon aerogel (Pt@N/CFP). Theoretical calculations reveal that this unique Pt-N interface serves a dual critical function: it not only lowers the kinetic barrier for water dissociation but also creates an electronic shield that effectively prevents chloride ion poisoning of the Pt active sites. When implemented as the cathode in a practical anion-exchange membrane (AEM) electrolyzer, the Pt@N/CFP catalyst demonstrates exceptional performance, achieving a low cell voltage of 1.688 V at an industrial-grade current density of 1000 mA cm−2 and maintaining outstanding stability for over 300 h. This work provides guidance for creating exceptionally durable catalysts capable of withstanding extreme electrochemical environments.