Комплексные подходы к характеризации наноалмазов детонационного синтеза и их коллоидных растворов (1105580), страница 41
Текст из файла (страница 41)
Synthetic Nanocrystalline Diamond as a Third-Generation BiosensorSupport // Langmuir. — 2006. — Vol. 22, N. 13. — P. 5837-5842.91. Kuga S., Yang J.-H., Takahashi H., Hirama K., Iwasaki T., Kawarada H. Detection ofMismatched DNA on Partially Negatively Charged Diamond Surfaces by Optical and PotentiometricMethods // Journal of the American Chemical Society. — 2008.
— Vol. 130, N. 40. — P. 13251-13263.92. Yang N., Uetsuka H., Osawa E., Nebel C. E. Vertically Aligned Diamond Nanowires for DNASensing // Angewandte Chemie International Edition. — 2008. — Vol. 47, N. 28. — P. 5183-5185.93. Пузырь А. П., Позднякова И. О., Бондарь В. С. Создание люминесцентного биочипа сиспользованием наноалмазов и бактериальной люциферазы // Физика твердого тела. — 2004. —T. 46, № 4. — C. 740-742.94.
Purtov K. V., Bondar V. S., Puzyr A. P. Supramolecular structure of nanodiamond particles andobelin built up on a two-dimensional plate // Dokl. Biochem. Biophys. — 2001. — Vol. 380. — P. 339.95. Chen W.-H., Lee S.-C., Sabu S., Fang H.-C., Chung S.-C., Han C.-C., Chang H.-C. Solid-PhaseExtraction and Elution on Diamond (SPEED): A Fast and General Platform for Proteome Analysiswith Mass Spectrometry // Analytical Chemistry. — 2006. — Vol.
78, N. 12. — P. 4228-4234.96. Chow E. K., Zhang X.-Q., Chen M., Lam R., Robinson E., Huang H., Schaffer D., Osawa E.,Goga A., Ho D. Nanodiamond Therapeutic Delivery Agents Mediate Enhanced Chemoresistant TumorTreatment // Science Translational Medicine. — 2011. — Vol. 3, N. 73. — P. 73ra21-73ra21.97. Merkel T. J., DeSimone J. M. Dodging Drug-Resistant Cancer with Diamonds // ScienceTranslational Medicine. — 2011. — Vol. 3, N.
73. — P. 73ps78-73ps78.98. Huang H., Pierstorff E., Osawa E., Ho D. Active Nanodiamond Hydrogels forChemotherapeutic Delivery // Nano Letters. — 2007. — Vol. 7, N. 11. — P. 3305-3314.21399. Sappok R., Boehm H. P. Chemie der oberfläche des diamanten--I benetzungswärmen,elektronenspinresonanz und infrarotspektren der oberflächenhydride,-halogenide und-oxide // Carbon.— 1968. — Vol.
6, N. 3. — P. 283-284, IN281-IN282, 285-295.100. Агибалова Л. В., Возняковский А. П., Долматов В. Ю., Клюбин В. В. Структурасуспензий ультрадисперсных алмазов взрывного синтеза // Сверхтвердые материалы. — 1998.— T. № 4. — C. 87-95.101. Кулакова И. И., Долматов В. Ю., др. и. Химические свойства ультрадисперсныхдетонационных алмазов // Сверхтвердые материалы. — 2000.
— T. № 1. — C. 46-53.102. Алексенский А. Е., Байдакова М. В., Вуль А. Я., Сиклицкий В. И. Структура алмазногонанокластера // Физика твердого тела. — 1999. — T. 41, № 4. — C. 740-743.103. Holt K. B., Caruana D. J., Millán-Barrios E. J. Electrochemistry of Undoped DiamondNanoparticles: Accessing Surface Redox States // Journal of the American Chemical Society. — 2009.— Vol.
131, N. 32. — P. 11272-11273.104. Kuznetsov V. L., Chuvilin A. L., Butenko Y. V., Stankus S. V., Khairulin R. A., Gutakovskii A.K. Closed curved graphite-like structures formation on micron-size diamond // Chemical PhysicsLetters. — 1998. — Vol. 289, N. 3-4. — P. 353-360.105. Prawer S., Nugent K. W., Jamieson D. N., Orwa J. O., Bursill L. A., Peng J. L. The Ramanspectrum of nanocrystalline diamond // Chemical Physics Letters. — 2000. — Vol. 332, N. 1-2. — P.93-97.106. Liu Y., Gu Z., Margrave J. L., Khabashesku V. N.
Functionalization of Nanoscale DiamondPowder: Fluoro-, Alkyl-, Amino-, and Amino Acid-Nanodiamond Derivatives // Chemistry ofMaterials. — 2004. — Vol. 16, N. 20. — P. 3924-3930.107. Jiang T., Xu K. FTIR study of ultradispersed diamond powder synthesized by explosivedetonation // Carbon. — 1995.
— Vol. 33, N. 12. — P. 1663-1671.108. Loktev V. F., Makal'skii V. I., Stoyanova I. V., Kalinkin A. V., Likholobov V. A., Mit'kin V. N.Surface modification of ultradispersed diamonds // Carbon. — 1991. — Vol. 29, N. 7. — P. 817-819.109. Mironov E., Petrov E., Koretz A. Chemical aspect of ultradispersed diamond formation //Diamond and Related Materials.
— 2003. — Vol. 12, N. 9. — P. 1472-1476.110. Cataldo F., Koscheev A. P. A Study on the Action of Ozone and on the Thermal Stability ofNanodiamond // Fullerenes, Nanotubes and Carbon Nanostructures. — 2003. — Vol. 11, N. 3. — P.201 - 218.111. Kuznetsov V. L., Aleksandrov M. N., Zagoruiko I.
V., Chuvilin A. L., Moroz E. M.,Kolomiichuk V. N., Likholobov V. A., Brylyakov P. M., Sakovitch G. V. Study of ultradisperseddiamond powders obtained using explosion energy // Carbon. — 1991. — Vol. 29, N. 4-5. — P. 665668.214112. Mironov E., Koretz A., Petrov E. Detonation synthesis ultradispersed diamond structuralproperties investigation by infrared absorption // Diamond and Related Materials.
— 2002. — Vol. 11,N. 3-6. — P. 872-876.113. Pichot V., Stephan O., Comet M., Fousson E., Mory J., March K., Spitzer D. High NitrogenDoping of Detonation Nanodiamonds // The Journal of Physical Chemistry C. — 2010. — Vol. 114, N.22. — P. 10082-10087.114. Panich A. M., Vieth H.-M., Shames A. I., Froumin N., Ôsawa E., Yao A.
Structure andBonding in Fluorinated Nanodiamond // The Journal of Physical Chemistry C. — 2009. — Vol. 114,N. 2. — P. 774-782.115. Butenko Y. V., Kuznetsov V. L., Paukshtis E. A., Stadnichenko A. I., Mazov I. N., MoseenkovS. I., Boronin A.
I., Kosheev S. V. The Thermal Stability of Nanodiamond Surface Groups and Onsetof Nanodiamond Graphitization // Fullerenes, Nanotubes and Carbon Nanostructures. — 2006. — Vol.14, N. 2. — P. 557 - 564.116. Iakoubovskii K., Baidakova M. V., Wouters B. H., Stesmans A., Adriaenssens G.
J., Vul A. Y.,Grobet P. J. Structure and defects of detonation synthesis nanodiamond // Diamond and RelatedMaterials. — 2000. — Vol. 9, N. 3-6. — P. 861-865.117. Barnard A. S., Sternberg M. Can we predict the location of impurities in diamondnanoparticles? // Diamond and Related Materials. — 2007.
— Vol. 16, N. 12. — P. 2078-2082.118. Evans S. Surface properties of diamond // The Properties of Natural and Synthetic Diamond /Field J. E. — London: Academic Press, 1992.119. Aditi D., Kirca M., Fu Y., To A. C. Surface structure and properties of functionalizednanodiamonds: a first-principles study // Nanotechnology. — 2011. — Vol. 22, N. 6. — P. 065706.120. Xu X., Yu Z., Zhu Y., Wang B. Influence of surface modification adopting thermal treatmentson dispersion of detonation nanodiamond // Journal of Solid State Chemistry.
— 2005. — Vol. 178, N.3. — P. 688-693.121. Xu X. Y., Zhu Y. W., Wang B. C., Shen X. Q. Surface modification of nanodiamond in aqueousmedium // Trans. Nonferrous Met. Soc. China. — 2003. — Vol. 13. — P. 1415.122. Nakamura T., Hasegawa M., Tsugawa K., Ohana T., Ishihara M., Koga Y. Photochemicalmodification of nanodiamond films with perfluorooctyl functionalities // Diamond and RelatedMaterials.
— 2006. — Vol. 15, N. 4-8. — P. 678-681.123. Chen M., Zhang X.-Q., Man H. B., Lam R., Chow E. K., Ho D. Nanodiamond VectorsFunctionalized with Polyethylenimine for siRNA Delivery // The Journal of Physical ChemistryLetters. — 2010. — Vol. 1, N. 21. — P. 3167-3171.124. Chang I. P., Hwang K. C., Ho J.-a. A., Lin C.-C., Hwu R. J. R., Horng J.-C. Facile SurfaceFunctionalization of Nanodiamonds // Langmuir. — 2009. — Vol. 26, N.
5. — P. 3685-3689.215125. Barras A., Szunerits S., Marcon L., Monfilliette-Dupont N., Boukherroub R. Functionalizationof Diamond Nanoparticles Using “Click” Chemistry // Langmuir. — 2010. — Vol. 26, N. 16. — P.13168-13172.126. Liang Y., Ozawa M., Krueger A. A General Procedure to Functionalize AgglomeratingNanoparticles Demonstrated on Nanodiamond // ACS Nano. — 2009. — Vol. 3, N. 8. — P. 2288-2296.127. Yang L., Vail M. A., Dadson A., Lee M. L., Asplund M. C., Linford M. R.
Functionalization ofDeuterium- and Hydrogen-Terminated Diamond Particles with Mono- and Multilayers using Di-tertAmyl Peroxide and Their Use in Solid Phase Extraction // Chemistry of Materials. — 2009. — Vol. 21,N. 19. — P. 4359-4365.128. Yeap W. S., Chen S., Loh K. P. Detonation Nanodiamond: An Organic Platform for the SuzukiCoupling of Organic Molecules // Langmuir. — 2008.