化學生物學領域

   劉剛,博士,研究員,博士生導師。中國科學院蘭州化學物理研究所環境材料與生態化學研究發展中心副主任,國家馬鈴薯產業技術體系貯藏加工研究室主任,加工副產品綜合利用崗位專家。科技部科技型中小企業技術創新基金評審專家。中國作物學會馬鈴薯專業委員會第六屆理事,加工利用學部副主任。中國能源學會第二屆理事會理事。中國化學學會永久會員。中國環境科學學會高級會員。民盟甘肅省委副主委,甘肅省政協常委。甘肅省跨世紀人才“333工程一、二層人選。甘肅省重大項目建設管理咨詢專家,甘肅省工程決策咨詢專家委員會委員。 

   多年來從事農產品功能營養成分分離技術、農產品加工與材料、環境化學與材料、水處理工程技術和太陽能光熱轉化材料方面的研究開發工作。在國內外學術期刊發表論文80余篇,已獲得專利授權17項。 

    研究方向: 

    ①食品營養學與安全 

    ②馬鈴薯加工及其廢棄物資源化利用 

    ③環境材料與水處理工程技術 

    ④太陽能光熱轉化材料與農產品干燥技術 

    獲獎及榮譽: 

    《馬鈴薯淀粉加工廢棄物資源化利用與污染控制》2016年獲甘肅省技術發明一等獎 

    《馬鈴薯淀粉加工廢棄物資源化利用》2015年獲中國產學研促進會創新成果二等獎 

    《納米硅基氧化物保鮮果蠟創新研究與技術開發》2009年獲中華農業科技三等獎  

    《新型納米硅基氧化物(SiOx)保鮮果蠟研制》2005年獲甘肅省科技二等獎  

    《軟包裝水果罐頭技術開發》1997年獲甘肅省星火科技二等獎  

    《葡萄試管繁殖技術的應用和推廣》1992年國家教委科技進步二等獎 

    在國內外學術期刊發表論文80余篇,2010年來主要有: 

  1.Recovery of Protease Inhibitors from Potato Fruit Water by Expanded Bed Adsorption Chromatography in Pilot Scale. Am. J. Potato Res. 2018. DOI 10.1007/s12230-017-9605-1 

  2.A Simple Method to Prepare Raw Dehydrated Potato Flour by Low-Temperature Vacuum Drying. International Journal of Food Engineering. 2018.DOI: 10.1515/ijfe-2017-0127 

  3.A new potato variety grown in China suitable for raw eating. European Food Research and Technology.2018.DOI.10.1007/s00217-017-3009-9. 

  4.馬鈴薯塊莖干物質、淀粉及還原糖含量的檢測及相關性分析.現代食品科技, 2017,33(10):288-293. 

  5.中國馬鈴薯主食化面臨的問題及解決方法.現代食品科技, 2017,33(9): 293-298. 

  6.馬鈴薯糖苷生物堿的水解及其工業應用.食品工業科技. 2017,38(10): 368-378. 

  7.Mixolab分析馬鈴薯生全粉的流變學特性.現代食品科, 2017,33(3): 146-154. 

  8.Optical properties and failure analysis of ZrC-ZrOx ceramic based spectrally selective solar absorbers deposited at a high substrate temperature. Solar Energy Materials & Solar Cells.2018.176.93-99 

  9.Enhanced optical properties of TiN-based spectrally selective solar absorbers deposited at a high substrate temperature. Solar Energy Materials & Solar Cells. 2017.163. 91-97. 

  10.Microstructure. chromaticity and thermal stability of SS/TiC-WC/Al2O3 spectrally selective solar absorbers. Solar Energy Materials and Solar Cells, 2017.164. 63-69. 

  11.Optical simulation, corrosion behavior and long term thermal stability of TiC based solar absorbers. Solar Energy Materials & Solar Cells.2017.167.150-156. 

  12.Structure, optical properties and thermal stability of TiC-based tandem spectrally selective solar absorber coating. Solar Energy Materials & Solar Cells.2016. 157.543-549. 

  13.Microstructure and Optical Properties of SS/Mo/Al2O3Spectrally Selective Solar Absorber Coating. Journal of Materials Engineering and Performance.2017.26. 161-167. 

  14.BookChapter title: Photothermal Conversion Applications of the Transition Metal (Cu, Mn, Co, Cr, and Fe) Oxides with Spinel Structure[M]//Magnetic Spinels-Synthesis. Properties and Applications. InTech, 2017. Chapter 12. ISBN 978-953-51-2974-5. 

  15.Enhanced thermal stability and spectral selectivity of SS/TiC-Y/Al2O3 spectrally selective solar absorber by thermal annealing. Solar Energy. 2016.140.199-205. 

  16.Structure, optical properties and thermal stability of SS/TiC-ZrC/Al2O3 spectrally selective solar absorber. RSC Advances.2016.6.63867-63873. 

  17.Structure, optical properties and thermal stability of Al2O3-WC nanocomposite ceramic spectrally selective solar absorbers. Optical Materials.2016.58.219-225. 

  18.Enhanced absorptance of surface-textured tungsten thin film for solar absorber, Surface Engineering.2016.32.840-845. 

  19.Aqueous solution-chemical derived spinel Cu1.5Mn1.5O4 thin film for solar absorber application. Materials Letters.2016.179: 170-174. 

  20.Solution combustion of spinel CuMn2O4 ceramic pigments for thickness sensitive spectrally selective (TSSS) paint coatings. Ceramics International. 2016. 42: 11966-11973. 

  21.Cu1.5Mn1.5O4-based ceramic spectrally selective coatings for efficient solar absorber applications. Journal of Alloys and Compounds. 2016. 675: 423-432. 

  22.Spectrally selective Cu1.5Mn1.5O4 spinel ceramic pigments for solar thermal applications. RSC Advances.2016. 6: 32947-32955. 

  23.Aqueous chemical solution deposition of spinel Cu1.5Mn1.5O4 single layer films for solar selective absorber. RSC Advances. 2016, 6: 54820-54829. 

  24.CuCr2O4 Spinel Ceramic Pigments Synthesized by Sol-Gel Self-Combustion Method for Solar Absorber Coatings. Journal of Materials Engineering and Performance.2016, 25: 2814-2823. 

  25.Synthesis and characterization of CoCuMnOx spinel ceramic thin film for spectral selectivity absorption.RSC Advances. 2016. 6: 87584-87592. 

  26.Aqueous solution-chemical derived CuMn2O4 ceramic films for spectrally solar selective absorbers, Ceramics International. 2016. 42: 19047-19057. 

  27. China’s turning potato to new staple food needs novel semi-finished ingredients. The XVIII Euro Food Chem conference .October 13-16. 2015. Madrid. Spain. 

  28.  Fresh mashed potato as the partial substitution to wheat flour in bread, chiffon cake and cookies. Develop Together for a Better Future. pp. 106-107. 2015 Beijing World Potato Congress.Beijing. 

  29. Physicochemical Properties Of Starch Extracted From Colocasia Esculenta (l.) Schott (bun-long Taro) Grown In Hunan, China. Starch-st?rke. 2014. 66. 142-148. 

  30.Rapid Synthesis of Acetylated Potato Starch by Microwave Heating with Iodine as Catalyst. Asian Journal of Chemistry. 2014. 26. 7931. 

  31.Recovery Of Native Protein From Potato Root Water By Expanded Bed Adsorption With Amberlite Xad7hp. Biotechnology And Bioprocess Engineering. 2013. 18. 981-988. 

  32.Synthesis and Characterization of Novel Polyimides Derived From Unsymmetrical Diamine: 2-amino-5-[4-(20-aminophenoxy) phenyl]- thiazole. Chinese Chemical Letters. 2013. 24.31-33. 

  33.Facile Synthesis of Novel PbS Dendritic Nanostructures with Tetraphenylphosphonium Bromide as a Ligand via Simple Hydrothermal Process. Asian Journal of Chemistry. 2013. 2. 649-652. 

  34.Optimization Design Of CuCrxMn2-xO4-based Paint Coatings Used For Solar Selective Applications. Solar Energy Materials and Solar Cells. 2012. 105. 293-301. 

  35.Low-temperature Combustion Synthesis Of CuCr2O4 Spinel Powder For Spectrally Selective Paints. Journal of Sol-gel Science And Technology. 2012. 61. 281-288. 

  36.Combustion Synthesis and Characterization of Spinel NiCr2O4Chinese Journal of Inorganic Chemistry. 2012. 28. 1979-1984. 

  37.Sol-gel combustion derived CoCuMnOx spinels as pigment for spectrally selective paints. Journal of the American Ceramic Society.2011. 94.827-832. 

  38.Preparation of Lead Sulfide/Silica Core-Shell Structure Submicron Particles by Ultrasonic Method. Chinese Journal of Inorganic Chemistry. 2009.8.1497-1503. 

  39.太陽能光譜選擇性吸收涂層研究進展.材料導報, 2015, (29): 48-51. 

  40.HPLC法測定馬鈴薯塊莖中糖苷生物堿的含量.中國馬鈴薯, 2015, 29 (5): 263-268. 

  41.馬鈴薯營養綜述.中國馬鈴薯, 2015,29 (4): 233-243. 

  42.馬鈴薯胰凝乳蛋白酶抑制劑活力的測定.現代食品科技,2015. 2 (31): 274-279. 

  43.馬鈴薯蛋白的分離及氨基酸組成分析.食品科學,2014,9 (35): 53-56. 

  44.馬鈴薯淀粉加工分離汁水資源化處理應用技術研究.食品科技,2014,8 (274): 162-165. 

  45.馬鈴薯加工淀粉廢水回收蛋白酸水解制備復合氨基酸,食品科技. 2013,3 (10) 197-201. 

  46.天然馬鈴薯蛋白的分離及氨基酸組成分析.食品科學. 2013.7.1. 

  47.CuCoMnOx光譜選擇性吸收涂層的研究.精細化工, 2012,29 (3):1-5. 

  48.馬鈴薯淀粉加工分離汁水提取蛋白質應用技術研究.馬鈴薯產業與水資源高效利用,哈爾濱工程大學出版社, 2012, 469-474. 

  49.雙波長比色法測定馬鈴薯直鏈/支鏈淀粉含量.現代食品科技, 2012, 28 (1): 119-122. 

  50.有機化納米粘土基絮凝吸附材料對馬鈴薯淀粉加工廢水的資源化處理.環境污染與防治, 2011, 33 (11): 44-48. 

  51.馬鈴薯直鏈淀粉/支鏈淀粉的分離.現代食品科技,2011,27 (12): 1466-1468. 

  52.有機化納米黏土對馬鈴薯廢水的資源化處理.環境污染與防治, 2011,33 (11), 44-48. 

  53.馬鈴薯淀粉廢水的資源化處理研究.工業水處理, 2011,12 (31): 35-38. 

  54.馬鈴薯渣提取果膠的工藝條件研究.安徽農業科學,2011,39 (35): 21770- 21771. 

  55.氯苯胺靈在土壤和水中的殘留及降解動態研究.農藥.2011, 50(8): 585-587. 

  56.凹凸棒黏土接枝聚丙烯腈的條件優化與吸附性能研究.環境工程學報.2010.8. 

    聯系方式: 

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    傳 : (86)-931-4968013  

    E-mail: [email protected] 

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