Major Contributions

1. Establishing a comprehensive classification framework for zero-dimensional nano-carbons, encompassing graphene quantum dots, nanodiamonds, and carbon dots. This work thoroughly analyzes their unique atomistic structures and quantum phenomena, particularly focusing on the relationship between carbon-carbon bond configurations and their resulting physicochemical properties. The research provides unprecedented insights into how different hybridization states and structural arrangements influence material behavior.

2. Developing and integrating advanced characterization methodologies for studying 0D nano-carbon structures. This includes combining multiple computational approaches such as first principles calculations, molecular dynamics simulations, finite element analysis, and machine learning techniques. This integrated approach creates a robust framework for understanding quantum confinement effects and electronic properties, enabling more accurate prediction and control of material properties.

3. Mapping out the practical applications of 0D nano-carbons across multiple technological domains. The research systematically explores and evaluates applications in optoelectronics, energy storage, sensing, catalysis, and biomedical fields. This work provides critical insights into the advantages and limitations of different types of 0D nano-carbons in various applications, establishing clear guidelines for their practical implementation.


主要貢獻

1. 建立零維奈米碳材料的全面分類框架，涵蓋石墨烯量子點、奈米鑽石和碳量子點。本研究深入分析了這些材料的獨特原子結構和量子現象，特別著重於碳-碳鍵結構與其物理化學特性之間的關係。這項研究為不同雜化態和結構排列如何影響材料行為提供了前所未有的見解。

2. 開發和整合用於研究零維奈米碳結構的先進表徵方法。這包括結合多種計算方法，如第一原理計算、分子動力學模擬、有限元素分析和機器學習技術。這種整合方法為理解量子侷限效應和電子特性創建了一個穩健的框架，使材料特性的預測和控制更為準確。

3. 提供零維奈米碳在多個技術領域的實際應用藍圖。研究系統地探索和評估了在光電子學、能源儲存、感測、催化和生物醫學領域的應用。這項工作為不同類型零維奈米碳在各種應用中的優勢和限制提供了重要見解，為其實際應用建立了明確的指導方針。