Publications by authors named "Anyang Wu"

Layered fertilization parameters affects crop root system configuration and growth distribution, which in turn affects soil pore properties and aggregate structure. Therefore, understanding the spatial distribution of the root system and soil pore space is helpful in choosing a reasonable fertilization ratio in production practice, which ensures high and stable crop yields and at the same time improves fertilizer utilization and soil health. Albeit the impact of layered fertilization ratio at varied rates on soil pore characteristics in the soil profile at a microscale level remains limited.

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It is highly desirable to develop novel n-type organic small molecules as an efficient electron-transport layer (ETL) for the replacement of PCBM to obtain high-performance metal-oxide-free, solution-processed inverted perovskite solar cells (PSCs) because this type of solar cells with a low-temperature and solution-based process would make their fabrication more feasible and practical. In this research, the new azaacene QCAPZ has been synthesized and employed as non-fullerene ETL material for inverted PSCs through a solution-based process without the need for additional dopants or additives. The as-fabricated inverted PSCs show a power conversion efficiency up to 10.

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Synopsis of recent research by authors named "Anyang Wu"

  • - Anyang Wu’s recent research focuses on enhancing agricultural practices and materials in crop production and renewable energy applications, particularly through the use of innovative fertilization methods and advanced materials for solar cells.
  • - In a study on rapeseed productivity, Wu explores how layered fertilizer strategies influence root system configurations and soil characteristics, emphasizing the need for optimal fertilization ratios to improve crop yields and soil health.
  • - Another significant work involves the development of a new azaacene derivative for use as an electron-transport layer in inverted perovskite solar cells, demonstrating promising results in power conversion efficiency with a solution-based fabrication process.