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Book and Book Chapters |
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16. S. Lawes, A. Riese, Q. Sun, N. Cheng and X. Sun, "Printing Nanostructured Carbon for Energy Storage and Conversion Appication" in the book of "Handbook of Carbon Nano Materials" in Volume 8, Edited by Francis D'Souza and Karl M. Kadish, Publisher: World Scientific. (World Scientific Series on Carbon Nanoscience), (2015) |
15. BOOK EDITING: "Advanced Materials and Technologies for Electrochemical Energy". Co-Edited by Pei-Kang Shen, Chao-Yang Wang, Xueliang Sun, San-Ping Jiang, and Jiujun Zhang, Publisher: CRC Publisher. (In book series of Electrochemical Energy Storage and Conversion), (2014), in press. |
14. BOOK EDITING: "Electrochemical Technologies for Energy Storage and Conversion". Edited by R-S Liu, X. Sun, L. Zhang, H. Liu and J.J. Zhang, Publisher: Wiley-VCH. (volumes 1&2), (2012). |
13. Yongliang Li, Hossein Yadegari, Jianhong Liu and Xueliang Sun, "Advanced Materials for Na-Air Batteries" in the book of "Advanced Materials and Technologies for Electrochemical Energy", Co-Edited by Pei-Kang Shen, Chao-Yang Wang, Xueliang Sun, San-Ping Jiang, and Jiujun Zhang, Publisher: CRC Publisher. (In book series of Electrochemical Energy Storage and Conversion), (2014), in press. |
12. Qizheng Li and Xueliang Sun, "Advanced Technologies for Li-Ion Rechargeable Batteries" in the book of "Advanced Materials and Technologies for Electrochemical Energy", Co-Edited by Pei-Kang Shen, Chao-Yang Wang, Xueliang Sun, San-Ping Jiang, and Jiujun Zhang, Publisher: CRC Publisher. (In book series of Electrochemical Energy Storage and Conversion), (2014), in press. |
11. Hossein Yadegari and Xueliang Sun, "Advanced Materials for Li-Air Rechargeable Batteries" in the book of "Advanced Materials and Technologies for Electrochemical Energy", Co-Edited by Pei-Kang Shen, Chao-Yang Wang, Xueliang Sun, San-Ping Jiang, and Jiujun Zhang, Publisher: CRC Publisher. (In book series of Electrochemical Energy Storage and Conversion), (2014), in press. |
10. Xifei Li and Xueliang Sun, "Recent Progress in Understanding of Lithium Storage Behavior of Graphene Nanosheet Anode for Lithium Ion Batteries" in the book of "Graphene Science Handbook", edited by Z.A. Niknam, Publisher: CRC Press, (2014), in press. |
9. Dongsheng Geng and Xueliang Sun, "Doped graphene as electrocatalysts for oxygen reduction reaction" in the book of "Nanocarbons for Advanced Energy Conversion", edited by Xinliang Feng, Publisher: Wiley-VCH in Weinheim, Germany, (2014), in press. |
8. B. Xiao and X. Sun, "Recent Progress of Graphene Nanoribbons Derived from Unzipped Carbon Nanotubes and the Application in Lithium Ion Batteries" in the book of "Graphene Oxide: Synthesis, Mechanical Properties and Application", Nova Sciences, USA, (2014). |
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6. G. Zhang, S. Sun and X. Sun, "Atomic Layer Deposition of Metals and Metal Oxides for Fuel Cell Applications" in the book of "Advances in Fuel Cells". Ed by San Ping Jiang and Pei-Kang Shen, CRC Press/Taylor & Francis, (2012). |
5. Y. Chen and X. Sun, "Heteroatom-doped CNTs: Synthesis, Characterization and Applications" in the Book of "Carbon Nanotubes: Synthesis, Properties and Applications'' Nova Sciences, USA, (2012). |
4. S. Sun and X. Sun, "Controlled Shape and Size of Pt Nanocatalysts for PEM Fuel Cells" in the book of "Controlled Size and Shape of Nanostructured Materials and Their Applications". Pan Stanford Publishing, Ru-Shi Liu Ed, (2012). |
3. J. Hou, J. Wang, X. Sun and M. W. Ellis, "Advanced Carbon Materials for Electrochemical Energy Conversion and Storage" in a "Handbook of Carbon Nano Materials". USA. (2012). |
2. X. Sun and M. Saha, "Carbon Nanostructures as Electrocatalyst Supports for PEM Fuel Cells" in a book on "PEM Fuel Cell Electrocatalysts and Catalyst Layers - Fundamentals & Applications". Springer, Zhang JJ Ed, 655-704, (2008). |
1. X. Sun and C. Li, "Fundamental Aspects and Applications of Nanotubes and Nanowires for Biosensors" in a book of "Smart Biosensor Technology", Edited by George K. Knopf and Amarjeet S. Bassi, CRC Press Taylor & Francis Group, 291-333, (2006). |
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Papers (Peer-Reviewed Journals) | |
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Front cover: Metal Organic Framework for Engery Storage and Conversion (Energy Storage Materials., 2/2016) |
Metal–organic frameworks (MOFs), a novel type of porous crystalline
materials, have attracted increasing attention in clean energy
applications due to their high surface area, permanent porosity, and
controllable structures. MOFs are excellent precursors for the design and
fabrication of nanostructured porous carbons and metal oxides, especially
for hierarchical nanostructures. In this review, the recent development
and understanding of MOFs and MOF-derived nanomaterials in the
applications of fuel cells, batteries (e.g. lithium-ion, lithium–sulfur,
and lithium–air batteries), and supercapacitors are summarized in detail.
Wevalso present the future trends, prospects, and possible obstacles of
the development of advanced MOFs and MOF-derived nanomaterials for more
promising and large-scale commercial applications of clean energy. |
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Front cover: Controlled SnO2 Effectively Dominating Sodium Storage Performance (Adv. Energy Mater., 2/2016) |
The exploration of sodium ion batteries (SIBs) is a profound challenge due to the rich sodium abundance and limited supply of lithium on earth. Here, amorphous SnO2/graphene aerogel (a-SnO2/GA) nanocomposites have been successfully synthesized via a hydrothermal methods for use as anode materials in SIBs. The designed annealing process produces crystalline SnO2/graphene aerogel (c-SnO2/GA) nanocomposites. For the first time, the significant effects of SnO2 crystallinity on sodium storage performance are studied in detail. | |
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Back cover: Atomic Scale Enhancement of Metal-support Interactions between Pt and ZrC for highly Stable Electrocatalysts (Energy Environ. Sci., 8/2015) |
Fuel cells are a promising solution for clean energy technology, but the instability of platinium (Pt) is a considerable challege for its widespread adoption. Here, we used the advanced atomic layer deposition (ALD) technique to stabilize Pt catalysts by increasing the Pt-support interactions through precisely controlling the metal-support interface at the atomic level. | |
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Inside front cover: Lithium-Ion Batteries: Rational Design of Atomic-Layer-Deposited LiFePO4 as a High-Performance Cathode for Lithium-Ion Batteries (Adv. Mater. 37/2014) |
The atomic layer deposition technique is successfully applied to synthesize lithium iron phosphate using rationally designed surface reactions, as demonstrated form the first time by X. Sun and co-workers on page 6472. The lithium iron phosphate exhibits high powder density, excellent rate capability, and ultra-long lifetime, showing great potential in vehicular lithium batteries and 3D all-solid-state microbatteries. | |
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Inside back cover: Flexible Rechargeable Lithium Ion Batteries: Advances and Challenges in Materials and Process Technologies. (J. Mater. Chem. A 2 (2014) 10712-10738) |
Flexible batteries possess several unique features including high flexibility, lightweight and easy portability, high specific power and energy density, and remarkable rate capability, etc. In this review, we systematically summarize the advances in flexible LIBs research, with focus on the development of flexible electrodes. The review proceeds in terms of the processes for making electrodes and full LIB cells so as to emphasize the materials and process technologies. | |
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Inside front cover: Superior catalytic activity of nitrogen-doped graphene cathodes for high energy capacity sodium-air batteries. (Chem. Comm. 12/2013) ( Page 11710) |
Nitrogen-doped graphene nanosheets (N-GNSs) displayed a discharge capacity two times greater than their pristine counterpart, as well as superior electrocatalytic activity as a cathode material for sodium–air batteries. The enhanced performance of N-GNSs is attributed to the active sites introduced by nitrogen doping. | |
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Back Cover: Layer by layer assembly of sandwiched graphene/SnO2 nanorod/carbon nanostructures with ultrahigh lithium ion storage properties. (Energy Environ. Sci. 5/2013) ( Page 2900) |
Sandwiched graphene/SnO2 nanorod/carbon nanostructures is well assembled with strong chemical bonding between layers, indicated by synchrotron analysis. The hybrid electrode exhibits a drastically increased capacity up to 1419mAhg-1 as shown in the image, benefiting from an advanced hierarchical nanostructure. | |
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Back Cover: LiFePO4–graphene as a superior cathode material for rechargeable lithium batteries: impact of stacked graphene and unfolded graphene. (Energy Environ. Sci. 6/2013) ( Page 1521) |
LiFePO4 nanoparticles are uniformly dispersed and tightly anchored to the unfolded graphene network, resulting in a high discharge capacity of 166.2 mA h g-1 (98% of the theoretical capacity) with low graphene content of 1.5 wt%. In their paper, X. Sun et al. presented a simple strategy for the synthesis of such LiFePO4 nanoparticles attached on the 3D conducting network, which enables both Li ions and electrons to migrate and reach each active particle, then realizing the full potential of active materials. | |
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Frontispiece: Batteries: Tin Oxide with Controlled Morphology and Crystallinity by Atomic Layer Deposition onto Graphene Nanosheets for Enhanced Lithium Storage (Adv. Funct. Mater. 8/2012) |
Atomic layer deposition derived amorphous SnO2 decorated on graphene nanosheets is demonstrated to be a very effective approach for addressing the challenges of electrochemical and mechanical degradation of SnO2 anodes with high energy capacity for lithium ion batteries. As reported by Xueliang Sun and co-workers on page 1647, this important finding shows promise for the application of the composite in hybrid electric vehicles and plug-in hybrid electric vehicles. | |
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Cover Picture: A New Highly Durable Pt Nanocatalyst for PEM Fuel Cells: the Multiarmed Star-like Nanowire Single Crystal. (Angew. Chem. Int. Ed. 2/2011) (Page 422) |
The multiarmed star-like platinum nanowires shown are used as a new type of electrocatalyst to address both activity and durability challenges for proton exchange membrane (PEM) fuel cells. In their Communication X. Sun et al. present a very simple strategy for the synthesis of such nanowires on carbon. The activity and durability of the new system is much improved over that of the commercial catalyst made of Pt nanoparticles on carbon supports. | |
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Cover Picture: New Insight into the Conventional Replacement Reaction for the Large-Scale Synthesis of Various Metal Nanostructures and their Formation Mechanism. (Chem. Eur. J. 35/2010) (Page 10597) |
New insights
into a conventional replacement reaction for the large-scale synthesis
of various metal nanostructures have been described in the Communication
of X. Sun et al.; Further, the growth processes of various metal
nanostructures (e.g., Ni) have been systematically investigated, and the
key factors in their morphological and structural control have been
proposed and discussed in detail. | |
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Inside Cover: Direct Growth of Single-Crystal Pt Nanowires on Sn@CNT Nanocable: 3D Electrodes for Highly Active Electrocatalysts. (Chem. Eur. J. 3/2010) (Page 732) |
A 3D coaxial nanocable electrode
consisting of platinum on a tin nanowire and a carbon nanotube support has
been prepared by X. Sun et el.; This novel PtNWSn@CNT electrode exhibits
exceptional electrochemical performance. | |
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Cover Picture: WO3 Nanowires on Carbon Papers: Electronic Transport, Improved Ultraviolet-Light Photodetectors and Excellent Field Emitters. (J. Mater. Chem. 21/2011) (Page 6525) |
Single-crystalline WO3 nanowires were synthesized and demonstrated excellent field-emission properties. These results indicate that present unique WO3 nanowires on carbon papers are promising candidates for constructing high-performance electronic and optoelectronic devices.
*In collaboration with Dr. Liang Li and Profs.
Yoshio Bando and Dmitri Golberg in the National Institute for Materials
Science, Japan. | |
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Cover Picture: Controllable Synthesis of Graphene-based Titanium Dioxide Nanocomposites by Atomic Layer Deposition. (Nanotechnology 22/2011) (Page 165602) |
TiO2/graphene nanocomposites were synthesized by Atomic layer deposition (ALD). The as-deposited TiO2 was tunable in morphologies and structural phases by this technique. The resultant TiO2–GNS nanocomposites have great potentials for many applications, such as photocatalysis, lithium-ion batteries, fuel cells, and sensors. | |
2017 | |
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274. Y. Zhao, L. Goncharova, A. Lushington, Q. Sun, H. Yadegari, B. Wang, W. Xiao, R. Li, X. Sun., Superior Stable and Long Life Sodium Metal Anodes Achieved by Atomic Layer Deposition. Adv. Mater., (2017) In press |
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273.
Q. Sun, J. Liu, X. Li, B. Wang, H. Yadegari,
A.
Lushington, M. Banis, Y. Zhao, W. Xiao, N. Chen, J. Wang, T.-K Sham, X.
Sun, Atomic Layer Deposited Non-noble Metal Oxide Catalyst for
Sodium-Air Batteries:
Tuning the
Morphologies and Compositions of
Discharge Product |
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270. S. Deng, B. Xiao, B. Wang, X. Li, K. Kaliyappan, Y. Zhao, A. Lushington, R. Li, T-K Sham, H. Wang, and X. Sun, New insight into stable protective layer for long-life and safe high voltage cathodes: atomic layer deposited AlPO4 coating for LiNi0.5Mn1.5O4. (2017) submitted |
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269. S. Lou, X. Chen, Y. Zhao, A. Lushington, J. Gao, Q, Li, P. Zuo, B, Wang, Y, Gao, Y, Ma, C. Du, G. Yin, X. Sun. Superior Performance of Ordered Macroporous TiNb2O7 Anodes for Lithium Ion Batteries: Understanding from the Structural and Pseudocapacitive Insights on Achieving High Rate Capability, Nano Energy, (2017) in press |
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2016 | |
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258. B. Xiao, H. Liu, J. Liu, Q. Sun, B. Wang, K. Kaliyappan, Y. Liu, R. Li, T.-K. Sham, G. Botton, M. Cai and X. Sun, Atomic-scale Manipulation of Spinel Lithium Nickel Manganese Surface by Tetrahedrally-coordinated Ti as High Performance Cathode. (2016) submitted. |
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257. C. Zhao, C. Yu, M. Banis, Q. Sun, M. Zhang, X. Li, Y. Liu, Y. Zhao, H. Huang, S. Li, X. Han, B. Xiao, Z. Song, R. Li, J. Qiu and X. Sun, Decoupling Atomic Layer Deposition Ultrafine RuO2 for High-efficiency and Ultralong-life Li-O2 Batteries. (2016) submitted. |
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249. A. Lushington, C. Langford, J. Liu, K. Nie, R. Li, X. Sun, J. Guo and X. Sun, Orientation and Ordering of Organic and Hybrid Inorganic-Organic Polyurea Films Using Molecular Layer Deposition. (2016) Under review. |
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248. J. Wang, C. Liu, B. Xiao, N. Cheng, A. Riese, M. Banis and X. Sun, Anti-poisoning Performance of Pt Catalysts Varying with Carbon Nanotubes Properties: Electrochemically Revealing the Importance of Defects. Chem. Electro. Chem. (2016) Accepted. |
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247. G. Zhang, M. Banis, Q. Wei, M. Cai, Y. Zhang, R. Li, S. Sun and X. Sun, Design of Pt/TiSix-NCNT Janus Nanostructures for Highly Stable and CO-Tolerant Electrocatalyst for PEM Fuel call Energy Application. (2016) Submitted. |
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246. X. Zhang, Q. Li, Q. Sun, X. Sun and H. Wang, Three-dimension Ultrathin Graphite Nanosheets Modified Porous Carbon Microspheres for High-rate Performance Supercapacitors. (2016) Submitted. |
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243. X. Zhang, Y. Wu, Z. Li, Q. Sun, Q. Li, F. Zheng and X. Sun, One-Step Fabrication of Graphite Nanosheets Modified Porous Carbon Microsphere for High-Rate Performance Supercapacitors. (2016) Submitted. |
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242. C. Yan, C. Wu, Q. Zhuang, L. Tian, Y. Cui, X. Zhao, Z. Ju and X. Sun, Investigation of the Lithiation Mechanism of Fe3O4-based Composite Anode: the Effect of the Carbon Matrix. Chemistry Select 1 (2016) 3979. |
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241. H. Kou, X. Li, L. Fan, B. Yan, D. Li and X. Sun, Binder-fee Porous NiCo2O4 Nanosheet Electrodes Enhancing Sodium Storage Performance. (2016) Submitted. |
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238. M. Talebi-Esfandarani, S. Rousselot, M. Gauthier, P. Sauriol, M. Duttine, A. Wattiaux, Y. Liu, X. Sun, G. Liang, M. Dollé, Evaluation of Melt Composition for Preparing LiFePO4 Using Non-Expensive Iron Source. (2016) Submitted. |
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234. L. Wang, Q.-C. Zhuang, X. Zhao, K. Wu, J.-M. Xu and X. Sun, Electrochemical Impedance Spectroscopic Investigation of the LiFePO4 Cathode for Lithium-ion Batteries. (2016) Submitted. |
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230. Y. Hao, X. Li, X. Sun and C. Wang. Sulfur Coated Nitrogen-doped Graphene Nanosheets as Lithium-sulfur Battery Cathode. Mater. Sci. Eng. B, (2016) In press. |
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2015 | |
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2014 | |
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189. J. Liu, B. Xiao, M. Norouzi Banis, R. Li, T.-K. Sham and X. Sun, Atomic Layer Deposition of Amorphous Iron Phosphates on Carbon Nanotubes as Cathode Materials for Lithium-ion Batteires. Electrochim. Acta. (2014) Accepted |
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178. Y. Tang, J. Wang, J. Yang, Y. Li, B. Xiao, X. Li, G. Liang, R. Li, T.-K. Sham, X. Sun, Observation of LiMn0.7Fe0.3PO4 Aging in Electrolyte: Effect of impurity phases. (2014) Submitted |
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177. Y. Tang, Z. Wang, D. Wang, J. Yang, B. Xiao, G. Liang, R. Li, X. Sun, T.-K. Sham, Soft X-ray Absorption Spectroscopy Evidence of LiMPO4 (M=Fe, Mn) Aging in Ambient Atmosphere. (2014) Submitted |
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175. Y. Zhang, M. Banis, H. Liu, R. Li, M. Cai, X. Sun, Hierarchical Hybrid of Few-layer Graphene upon Tungsten Monocarbide Nanowires. (2014) Submitted |
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2013 | |
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155. M. Guo, D. Li, M. Zhao, Y. Zhang, X. Deng, D. Geng, R. Li, X. Sun, H. Gu, R. Wan, NH2+ Implantations Induced Superior Hemocompatibility of Carbon Nanotubes. Nanoscale Res. Lett. 8 (2013) 205. | |
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152. M. Mahdavi, L. Jiang, X. Sun, Nonlinear Free Vibration Analysis of An Embedded Double Layer Graphene Sheet in Polymer Medium. Inter. J. Appl. Mech. 4 (2013) 1250039. | |
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133. Y. Zhang, D. Li, M. Zhao, M. Guo, X. Deng, X. Sun, D. Geng, H. Gu, Comparison in Cell and Blood Behaviors of Pristine, Carboxyl and Hydroxyl Functionalized Multiwalled Carbon Nanotubes. Sci. Adv. Mater., 5 (2013) 1436-1443. |
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132. S. Zhang, D. Li, N. Wang, L. Dong, H. Gu, R. Wan, X. Sun, The Synthesis of Zr-Nb-N Hard Coating Using Multi-target Magnetron Co-sputtering, . Nucl. Instrum. Meth. B 307 (2013) 119-122. |
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2012 | |
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2011 | |
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2010 | |
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2009 | |
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2007-2008 | |
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Publication list before 2007 | |
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Patents and Patent Pending | |
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15. Sun, X., Hu, Y., Li, X., Yang, Q., "A Method for Mass Production of Silicon Nanowires and/or Nanobelts, and Lithium Batteries and Anodes Using the Silicon Nanowires and Nanobelts", US and PCT patent, Application Number: wo 2015/051442 Al (2015). |
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14. Sun, X., Abou-Rachid, H., Ionescu, M. "Multi-branched N-doped Carbon Nanotubes and the Process for Making the Same", US patent, Application Number: 2014/0199546 Al (2014). |
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13. Sun, X., Abou-Rachid, H., Ionescu, M. "Controlled Synthesis Novel Class Carbon Nanostructures", US patent, Application Number: 13739580 (2012). | |
12. Sun, X., Zhang, G., Sun, S., Li R., Cai, M., "Porous Dendritic Platinum Nanotubes as Electrocatalysts for Fuel Cell Applications", US patent, Publication Number: 20120003563 (2012). | |
11. X. Sun, R. Li, Y. Zhou, H. Liu, and M. Cai. ''One-dimensional Metal Nanostructures", US patent, Patent Number: 20120308818 (2012). | |
10. Sun, X., Li, X., Geng, D., Yang, Q. "Secondary Lithium Batteries Having Novel Anodes", US patent, Patent Number: 20120177995 (2012). | |
9. Sun, X., Zhang, G., Sun, S., Li, R., Cai, M. "A General Strategy for the Kilogram-Scale Production of Various Metal and Bimetallic-composite Nanostructures", US patent, Publication Number: 20110197710 (2011). |
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8. X. Sun., R. Li, R. Y. Zhou, H. Liu and M. Cai. "One-dimensional Metal and Metal Oxide Nanostructures", US patent, Publication Number: 8034408B2 (2011). |
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7. X. Sun., Y. Zhong, R. Li, M. Cai. "Synthesis of Rare Earth Element-containing Alumina Nanowires", US patent, Publication Number: 2012/0177995 Al (2011). | |
6. Sun, X., Zhong, Y., Li, R., Cai, M. "Synthesis of Rare Earth Element-containing Alumina Nanowires", US patent, Patent application number: 20100130351 (2010). | |
5. Sun, X., Li, R., Saha, M., Cai, M. "Nanowires Supported Catalysts For Fuel Cell Electrodes", US patent, Patent Number: 20090004552 (2009). | |
4. Sun, X., Li, R., Zhou, Y., Liu, H., Cai, M. "One-dimensional Metal and Metal Oxide Nanostructures", US patent, Patent Number: 2008031005 (2008). | |
3. Sun, X., Li, R., Saha, M., Cai, M. "Nanowire-based Electrodes for PEM Fuel Cell Applications", US patent, Patent Number: 2008070482 (2008). | |
2. Dodelet, J.P., Sun, X., Li, R., Villers, D., Désilets, S. "Depositing Metal Particles on Carbon Nanotubes", US Patent, Application No.: 20050220988A1. (2005). | |
1. Dodelet, J.P., Désilets, S., Sun, X., "Process for Preparing Carbon Nanotubes", US Patent, Application No.: US2003/0202930 Al. (2003). | |
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