Carbon Nano-onions
Synthesis, Computational Modeling, Properties, and Applications
- 1st Edition - October 29, 2025
- Latest edition
- Authors: Esmaeal Ghavanloo, Narsimha Mamidi
- Language: English
Carbon Nano-onions: Synthesis, Computational Modeling, Properties, and Applications provides a detailed examination of carbon nano-onions, a highly promising class of carbon… Read more
Carbon Nano-onions: Synthesis, Computational Modeling, Properties, and Applications provides a detailed examination of carbon nano-onions, a highly promising class of carbon-based nanostructures. The book serves as a definitive guide, introducing various synthesis, purification, and characterization techniques of carbon nano-onions. It presents mathematical and computational modeling methods to predict the behavior of these nanostructures, establishing a bridge between theory and application. Additionally, the book engages in a thorough discussion of current applications while presenting new possibilities in the utilization of carbon nano-onions.
This is a valuable resource for academic and industrial researchers interested in the fundamentals and applications of carbon nano-onions across a wide range of fields.
This is a valuable resource for academic and industrial researchers interested in the fundamentals and applications of carbon nano-onions across a wide range of fields.
- Provides a systematic overview detailing the molecular structure, fabrication, and purification methods of carbon nano-onions.
- Presents essential mathematical and computational modeling methods, important for investigating the characteristics of carbon nano-onions.
- Explores the diverse current applications of carbon nano-onions while introducing innovative possibilities for their potential use.
Researchers and scientists in the fields of materials science and nanotechnology
1. Introduction
1.1. Brief history
1.2. Atomic structure and morphology
2. Synthesis and Purification methods
2.1. Thermal annealing
2.2. Pyrolysis
2.3. Chemical vapor deposition
2.4. Arc-discharge
2.5. Electron irradiation
2.6. Purification of carbon nano onions
3. Characterization techniques
3.1. X-ray diffraction
3.2. Infrared Spectroscopy
3.3. Raman spectroscopy
3.4. Microscopic imaging
4. Functionalization of carbon nano-onions
4.1. Covalent functionalization
4.2. Non-covalent functionalization
5. Doping of carbon nano-onions with metals and heteroatoms
5.1. Doping of carbon nano-onions with metals
5.2. Doping of carbon nano-onions with heteroatoms
6. Carbon nano-onion composites
6.1. Polymeric nanocomposites
6.2. Inorganic nanocomposites
7. Mathematical and Computational Modeling of Carbon Nano-Onions
7.1. Molecular dynamic simulations
7.1.1. A brief description of Molecular dynamic simulations
7.1.2. Modelling of the formation of carbon nano-onion
7.1.3. Structural stability of three-layer fullerenes
7.1.4. Lubrication mechanism of carbon nano-onions
7.1.5. Absorption of lithium ions by carbon nano-onions
7.2. Continuum approximation
7.2.1. Estimation of Lennard-Jones potential energy
7.2.2. Interaction energy between a carbon nano-onion and a substrate
7.2.3. Interaction energy between a carbon nano-onion and a nanotube
8. Vibration characteristics
8.1. Breathing-like modes
8.2. Frequency band gaps in carbon nano-onion chains
9. Applications of carbon nano-onion
9.1. Energy storage
9.2. Biomedicine
9.3. Sensors
9.4. Lubrication
9.5. Other notable applications
1.1. Brief history
1.2. Atomic structure and morphology
2. Synthesis and Purification methods
2.1. Thermal annealing
2.2. Pyrolysis
2.3. Chemical vapor deposition
2.4. Arc-discharge
2.5. Electron irradiation
2.6. Purification of carbon nano onions
3. Characterization techniques
3.1. X-ray diffraction
3.2. Infrared Spectroscopy
3.3. Raman spectroscopy
3.4. Microscopic imaging
4. Functionalization of carbon nano-onions
4.1. Covalent functionalization
4.2. Non-covalent functionalization
5. Doping of carbon nano-onions with metals and heteroatoms
5.1. Doping of carbon nano-onions with metals
5.2. Doping of carbon nano-onions with heteroatoms
6. Carbon nano-onion composites
6.1. Polymeric nanocomposites
6.2. Inorganic nanocomposites
7. Mathematical and Computational Modeling of Carbon Nano-Onions
7.1. Molecular dynamic simulations
7.1.1. A brief description of Molecular dynamic simulations
7.1.2. Modelling of the formation of carbon nano-onion
7.1.3. Structural stability of three-layer fullerenes
7.1.4. Lubrication mechanism of carbon nano-onions
7.1.5. Absorption of lithium ions by carbon nano-onions
7.2. Continuum approximation
7.2.1. Estimation of Lennard-Jones potential energy
7.2.2. Interaction energy between a carbon nano-onion and a substrate
7.2.3. Interaction energy between a carbon nano-onion and a nanotube
8. Vibration characteristics
8.1. Breathing-like modes
8.2. Frequency band gaps in carbon nano-onion chains
9. Applications of carbon nano-onion
9.1. Energy storage
9.2. Biomedicine
9.3. Sensors
9.4. Lubrication
9.5. Other notable applications
- Edition: 1
- Latest edition
- Published: October 29, 2025
- Language: English
EG
Esmaeal Ghavanloo
Dr Esmaeal Ghavanloo is an Associate Professor of Mechanical Engineering at Shiraz University, Iran. His research focuses on size-dependent continuum theories, computational nanomaterials, and metamaterials. Throughout his academic career, he has published numerous peer-reviewed articles and books. He is an active member of the scientific community, serving on editorial boards of various international journals. He has received prestigious awards, including the COMSTECH Award for Best Scientific Book and the Young Researcher Award from the Iran Academy of Sciences. Additionally, he has been recognized on Stanford University’s list of the world’s Top 2% Most-Cited Scientists over recent years.
Affiliations and expertise
Associate Professor, School of Mechanical Engineering Shiraz University, IranNM
Narsimha Mamidi
Dr. Narsimha Mamidi is a scientist at the Wisconsin Center for Nano Biosystems, University of Wisconsin-Madison, USA, specializing in nanobiomaterials and nanotherapeutics to advance cancer immunotherapy and gene delivery. Previously, as an Assistant Professor at Tecnológico de Monterrey, he led research on biomaterials for drug delivery, implants, and tissue engineering, translating lab innovations to clinical applications. With extensive publications and honors like the Eli Lilly Award, Dr. Mamidi's work is widely acclaimed.
Affiliations and expertise
University of Wisconsin-Madison, USARead Carbon Nano-onions on ScienceDirect