李心磊 - 副教授 - 华南师范大学生物光子学研究院

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姓名：李心磊
学历：博士
职称：副研究员
职务：-
研究方向：纳米材料物理
联系电话：020-85211920-8708
电子邮箱：xlli@scnu.edu.cn
通讯地址：广州市天河区石牌华南师范大学激光大楼617房
个人主页：http://www.scholat.com/xlli4

李心磊，男，副研究员。

2009年6月毕业于中山大学物理科学与工程技术学院，获材料物理与化学专业博士学位。

2009年7月至今在华南师范大学生物光子学研究院工作。

迄今为止，在Advanced Functional Materials，Applied Physics Letters, Physical Review B, Journal of Physical Chemistry C等国际权威SCI学术刊物上正式发表学术论文30余篇录。

目前研究工作主要集中在（1）纳米材料生长的物理化学过程机制研究；（2）生物体中的表面和界面物理、化学特性研究。

(*Corresponding author/通讯作者)

[1] J. Wu#, Y. Hirono#, X. L. Li#, Z. M. Wang*, J. H. Lee, M. Benamara, S. Luo, Y. I. Mazur, E. S. Kim, and G. J. Salamo. Self-Assembly of Multiple Stacked Nanorings by Vertically Correlated Droplet Epitaxy, Advanced Functional Materials DOI: 10.1002/adfm.201302032 (2013). (#These authors contributed equally/同等贡献)

[2] X. L. Li*, Selective formation mechanisms of quantum dots on patterned substrates, Physical Chemistry Chemical Physics 15, 5238 (2013).

[3] X. L. Li*. Theory of controllable shape of quantum structures upon droplet epitaxy, Journal of Crystal Growth 377, 59 (2013).

[4] X. L. Li*, Size effects of carbon nanotubes and graphene on cellular uptake, EPL 100, 46002 (2012).

[5] X. L. Li*, The influence of the atomic interactions in out-of-plane on surface energy and its applications in nanostructures, Journal of Applied Physics 112, 013524 (2012).

[6] X. L. Li*, Size and shape effects on receptor-mediated endocytosis of nanoparticles, Journal of Applied Physics 111, 024702 (2012).

[7] X. L. Li* and G. Ouyang, Thermodynamic theory of controlled formation of strained quantum dots on hole-patterned substrates, Journal of Applied Physics 109, 093508 (2011).

[8] X. L. Li*, G. Ouyang and X. Tan, Thermodynamic stability of quantum dots on strained substrates, Phyisca E 43, 1755 (2011).

[9] X. L. Li* and D. Xing, A simple method to evaluate the optimal size of nanoparticles for endocytosis based on kinetic diffusion of receptors, Applied Physics Letters 97, 153704 (2010).

[10]X. L. Li*, Y. Y. Cao and G. W. Yang, Thermodynamic theory of two-dimensional to three-dimensional growth transition in quantum dots self-assembly, Physical Chemistry Chemical Physics 12, 4768 (2010).

[11]X. L. Li*, Formation mechanisms of multiple concentric nanoring structures upon droplet epitaxy, Journal of Physical Chemistry C 114, 15343 (2010).

[12]X. L. Li*, Thermodynamic Theory of quantum dot self-assembly on strained substrates, Journal of Physical Chemistry C 114, 2018 (2010).

[13]X. L. Li*, Thermodynamic analysis on the stability and evolution mechanism of self-assembled quantum dots, Applied Surface Science 256, 4023 (2010).

[14]X. L. Li*, Surface chemical potential in multilayered Stranski-Krastanow systems: An analytic study and anticipated applications, Journal of Applied Physics 106, 113520 (2009).

[15]X. L. Li and G. W. Yang, On the physical understanding of quantum rings self-assembly upon droplet epitaxy, Journal of Applied Physics 105, 103507 (2009).

[16]X. L. Li and G. W. Yang, Thermodynamic theory of shape evolution induced by Si capping in Ge quantum dots self-assembly, Journal of Applied Physics 105, 013510 (2009).

[17]X. L. Li and G. W. Yang, Strain self-releasing mechanism in heteroepitaxy on nanowire, Journal of Physical Chemistry C 113, 12402 (2009).

[18]X. L. Li and G. W. Yang, Theoretical determination of contact angle in quantum dot self-assembly, Applied Physics Letters 92, 171902 (2008).

[19]X. L. Li and G. W. Yang, Growth mechanisms of quantum ring self-assembly upon droplet epitaxy, Journal of Physical Chemistry C 112, 7693 (2008).

[20]X. L. Li, G. Ouyang and G. W. Yang, A thermodynamic theory of the self-assembly of quantum dots, New Journal of Physics 10, 043007 (2008).

[21]X. L. Li, G. Ouyang and G. W. Yang, Surface Alloying at the Nanoscale: Mo on Au Nanocrystalline Films, Nanotechnology 19, 505303 (2008).

[22]X. L. Li, G. Ouyang and G. W. Yang, Thermodynamic model of metal-induced self-assembly of Ge quantum dots on Si substrates, European Physical Journal B 62, 295 (2008).

[23]X. L. Li, G. Ouyang and G. W. Yang, Thermodynamic theory of nucleation and shape transition of strained quantum dots，Physical Review B 75, 245428 (2007).

[24]Y. Y. Cao, X. L. Li and G. W. Yang, Physical mechanism of quantum dot to quantum ring transformation upon capping process, Journal of Applied Physics 109, 083542 (2011).

[25]Y. Y. Cao, X. L. Li and G. W. Yang, Wetting layer evolution upon quantum dots self-assembly, Applied Physics Letters 95, 231902 (2009).

[26]G. Ouyang, X. L. Li and G. W. Yang, Superheating and melting of nanocavities, Applied Physics Letters 92, 051902 (2008).

[27]X. Tan, X. L. Li and G. W. Yang, Theoretical strategy for self-assembly of quantum rings, Physical Review B 77, 245322 (2008).

[28]G. Ouyang, X. L. Li, X. Tan and G. W. Yang, Surface free energy of nanowires, Nanotechnology 19, 045709 (2008).

[29]G. Ouyang, X. L. Li and G. W. Yang, Sink-effect of nanocavities: Thermodynamics and kinetic approach, Applied Physics Letters 91, 051901 (2007).

[30]G. Ouyang, X. L. Li, X. Tan and G. W. Yang, Anomalous Young’s modulus of a nanotube, Physical Review B 76, 193406 (2007).

[31]G. Ouyang, X. L. Li, X. Tan and G. W. Yang, Size-induced strain and stiffness of nanocrystals, Applied Physics Letters 89, 031904 (2006).