个人简述:

理学博士，男，中共党员，中国化学会会员，硕士生导师。2006年7月本科毕业于浙江理工大学材料科学与工程系，获工学学士学位；2009年4月硕士毕业于浙江理工大学材料学专业，获工学硕士学位；2009年5月至2010年5月任浙江大学化学系助理研究员；2014年3月博士研究生毕业于浙江大学物理化学专业，获理学博士学位。2014年5月进入浙江理工大学材料与纺织学院从事科研与教学工作，主讲课程包括《热工过程及设备》、《新型无机材料》和《薄膜材料技术》。2016-2017年间在日本Kyoto Institute of Technology小林久芳研究室以访问学者身份从事科研工作。

2013年获浙江大学优秀研究生、三好研究生称号；2013年获浙江大学博士研究生国家奖学金；2014年获浙江省优秀博士毕业生称号；2015年获中美华人纳米论坛墙报金奖。

科研工作:

主持基金：

(1)国家自然科学基金：项目名称：自由基参与纳米铂基金属表面氰化重构及其抗“甲醇渗透”电催化性能；项目编号：21503189

(2)浙江省自然科学基金面上项目：项目名称：纳米金属表面光化学氰基可控改性及电催化特性研究；项目编号：LY15B030009

(3)浙江理工大学优博专项：TiO2纳米纤维表面重构及可见光选择性催化醇类分子；项目编号：2013YBZX04

(4)浙江理工大学启动基金：纳米金属表面光化学氰基改性及电催化特性；项目编号：14012080-Y

(5)浙江理工大学优秀青年基金：纳米金属表面光化学氰基改性及电催化特性；项目编号：2014QN01

发表论文：

[1]R. Li, H. Kobayashi, J. Tong, X. Yan, Y. Tang, S. Zou, J. Jin, W. Yi, J. Fan, Radical-involved photosynthesis of AuCN oligomers from Au nanoparticles and acetonitrile, Journal of the American Chemical Society, 134 (2012) 18286-18294. （影响因子：13.0）

[2]R. Li, X. Zhu, H. Kobayashi, S. Yoshida, W. Chen, L. Du, K. Qian, X. Yan, B. Wu, S. Zou, An Oxygen-Controlled Hydrogen Evolution Reaction: Molecular Oxygen Promotes Hydrogen Production from Formaldehyde Solution Using Ag/MgO Nanocatalyst, ACS Catalysis, 7 (2017)1478–1484.（影响因子：9.3）

[3]R. Li, X. Zhu, L. Du, K. Qian, B. Wu, S. Kawabata, H. Kobayashi, X. Yan, W. Chen, All-solid-state magnesium oxide supported Group VIII and IB metal catalysts for selective catalytic reforming of aqueous aldehydes into hydrogen, Int J Hydrogen Energy, (2017).

[4]R. Li,X. Yan, X. Zhu, D. Shou, X. Zhou, Y. Dai, Y. Yang, Gold nanoparticles confined in ordered mesopores: Size effect and enhanced stability during gas-phase selective oxidation of cyclohexanol, Catalysis Today, (2017).

[5] W. Hong, X. Yan,R. Li, J. Fan, Gold nanoparticle stabilization within tailored cubic mesoporous silica: Optimizing alcohol oxidation activity, (2017).

[6] W. Yi, X. Yan,R. Li, J.-Q. Wang, S. Zou, L. Xiao, H. Kobayashi, J. Fan, A new application of the traditional Fenton process to gold cyanide synthesis using acetonitrile as a cyanide source, RSC Advances, 6 (2016) 16448-16451.

[7] X. Yan, X. Zhu,R. Li, W. Chen, Au/BiOCl heterojunction within mesoporous silica shell as stable plasmonic photocatalyst for efficient organic pollutants decomposition under visible light, Journal of hazardous materials, 303 (2016) 1-9.

[8] L. Lu, R. Li, K. Fujiwara, X. Yan, H. Kobayashi, W. Yi, J. Fan, Cyanide Radical Chemisorbed Pt Electrocatalyst for Enhanced Methanol-Tolerant Oxygen Reduction Reactions, The Journal of Physical Chemistry C, 120 (2016) 11572-11580.

[9]R. Li, X. Zhu, X. Yan, D. Shou, X. Zhou, W. Chen, Single component gold on protonated titanate nanotubes for surface-charge-mediated, additive-free dehydrogenation of formic acid into hydrogen, RSC Advances, 6 (2016) 100103-100107.

[10]R. Li, X. Zhu, D. Shou, X. Zhou, X. Yan, The interparticle coupling effect of gold nanoparticles in confined ordered mesopores enhances high temperature catalytic oxidation, RSC Advances, 6 (2016) 88486-88489.

[11] X. Wang, X. Yan,R. Li, L. Xiao, G. Ma, Y. Dai, J. Fan, High Density Gold Nanoparticles Within Three-Dimensionally Mesoporous SBA-15: Adsorption Behavior and Optical Properties, Journal of nanoscience and nanotechnology, 15 (2015) 7060-7067.

[12] Y. Tang, S. Xu, Y. Dai, X. Yan,R. Li, L. Xiao, J. Fan, Solid phase metallurgy strategy to sub-5 nm Au–Pd and Ni–Pd bimetallic nanoparticles with controlled redox properties, Chemical Communications, 50 (2014) 213-215.

[13] P. Qiao, S. Xu, D. Zhang,R. Li, S. Zou, J. Liu, W. Yi, J. Li, J. Fan, Sub-10 nm Au–Pt–Pd alloy trimetallic nanoparticles with a high oxidation-resistant property as efficient and durable VOC oxidation catalysts, Chemical Communications, 50 (2014) 11713-11716.

[14]R. Li, H. Kobayashi, X. Yan, J. Fan, Dioxygen activation at room temperature during controllable and highly efficient acetaldehyde-to-acetic acid oxidation using a simple iron (III)–acetonitrile complex, Catalysis Today, 233 (2014) 140-146.

[15] Y. Hong, X. Yan, X. Liao,R. Li, S. Xu, L. Xiao, J. Fan, Platinum nanoparticles supported on Ca (Mg)-zeolites for efficient room-temperature alcohol oxidation under aqueous conditions, Chemical Communications, 50 (2014) 9679-9682.

[16] S. Zou,R. Li, H. Kobayashi, J. Liu, J. Fan, Photo-assisted cyanation of transition metal nitrates coupled with room temperature C–C bond cleavage of acetonitrile, Chemical Communications, 49 (2013) 1906-1908.

[17] X. Yan, X. Wang, Y. Tang, G. Ma, S. Zou,R. Li, X. Peng, S. Dai, J. Fan, Ordered, extra-large mesopores with highly loaded gold nanoparticles: a new sintering-and coking-resistant catalyst system, Chemical Communications, 49 (2013) 7274-7276.

[18] X. Yan, X. Wang, Y. Tang, G. Ma, S. Zou,R. Li, X. Peng, S. Dai, J. Fan, Unusual Loading-Dependent Sintering-Resistant Properties of Gold Nanoparticles Supported within Extra-large Mesopores, Chem Mater, 25 (2013) 1556-1563.

[19] J. Wang, X. Liu,R. Li, P. Qiao, L. Xiao, J. Fan, TiO2nanoparticles with increased surface hydroxyl groups and their improved photocatalytic activity, Catal Commun, 19 (2012) 96-99.

[20] S. Zou, J. Liu, H. Kobayashi, C. Chen, P. Qiao,R. Li, L. Xiao, J. Fan, Boosting Hydrogen Evolution Activities by Strong Interfacial Electronic Interaction in ZnO@ Bi (NO3) 3 Core–Shell Structures, The Journal of Physical Chemistry C, (2017).

[21]R. Li, H. Kobayashi, J. Guo, J. Fan, Visible-Light Induced High-Yielding Benzyl Alcohol-to-Benzaldehyde Transformation over Mesoporous Crystalline TiO2: A Self-Adjustable Photo-oxidation System with Controllable Hole-Generation, The Journal of Physical Chemistry C, 115 (2011) 23408-23416.

[22]R. Li, H. Kobayashi, J. Guo, J. Fan, Visible-light-driven surface reconstruction of mesoporous TiO 2: toward visible-light absorption and enhanced photocatalytic activities, Chemical Communications, 47 (2011) 8584-8586.

[23]R. Li, W. Chen, H. Kobayashi, C. Ma, Platinum-nanoparticle-loaded bismuth oxide: an efficient plasmonic photocatalyst active under visible light, Green Chemistry, 12 (2010) 212-215.

[24]R. Li, W. Chen, W. Wang, Magnetoswitchable controlled photocatalytic system using ferromagnetic Fe 0-doped titania nanorods photocatalysts with enhanced photoactivity, Separation and Purification Technology, 66 (2009) 171-176.

氢能是一种公认的高热值清洁能源，高位发热值约是汽油的三倍，被誉为“能源货币”。现阶段，氢气存储和输运技术成了氢能源大规模应用的瓶颈。鉴于此，课题组研究方向之一是基于金属-载体强相互作用制备结构可控的纳米材料用于光、电、热催化C1小分子及生物质液相重整制氢。

黄金是一种贵重金属，是人类最早发现和开发利用的金属之一，素以"金属之王"著称。氰化法提金是从金矿石中提取金的主要方法之一。其基本反应式(即Elsner Equation)为：

4Au + 8KCN + 2H2O + O2→ 4KAu(CN)2+ 4KOH

由于氰化物是剧毒物质，目前传统的氰化冶金法在世界各地已经受到广泛抵制。我们设计了一种自由基参与的绿色合成路线，其总反应方程式为：

4CH3CN + 3·OH + 3Au → CH3CH2CN + CH3CH2OH + 3AuCN + 2H2O

纳米铂催化剂在工业过程中有着广泛的应用，然而它容易吸附一些小分子，比如CO，引起中毒失活现象。我们通过对纳米铂表面进行氰化处理，不仅改善了铂的氧还原能力，同时还增强了铂抗甲醇和CO中毒的能力，为今后设计直接甲醇燃料电池提供了很好的思路。

醇类分子选择性氧化至醛，是一个至关重要的化工过程。我们通过将纳米金属负载到分子筛表面，构建了高效绿色的催化体系，在室温条件下即可将一系列醇氧化到醛，而不是酸等物质。当然，还有更多的材料正在设计和制备之中。。。

可见光催化分解水一直被誉为催化界的“圣杯”反应，我们通过有机分子和半导体之间的电子轨道杂化构建了可见光催化体系，可以用于室温条件下的分解水制氢。同时，我们还设计了不同种类的负载型纳米催化剂用于低温条件下的制氢工作（无需光电参与）。

等离子诱导的可见光催化反应在最近几年得到了长足的发展，我们利用限域条件下的纳米金构筑了可见光催化体系用于有机污染物和VOC的降解（希望还可以缓解雾霾）

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