［1］ Haddon R C． Chemistry of the fullerenes———the manifestation of strain in a class of continuous aromatic molecules［J］． Science， 1993，261( 5128) : 1 545-1 550．
［2］ Ugarte D，Chatelain A，de Heer W A． Nanocapillarity and chemistry in carbon nanotubes［J］． Science，1996，274 ( 5294) : 1 897-1 899．
［3］ Pederson M R，Broughton J Q． Nanocapillarity in fullerene tubules［J］． Phys Rev Lett，1992，69( 18) : 2 689-2 692．
［4］ Ajayan P M，Iijima S． Capillarity-induced filling of carbon nanotubes［J］． Nature，1993，361( 6410) : 333-334．
［5］ Dujardin E，Ebbesen T W，Hiura H，et al． Capillarity and wetting of carbon nanotuhes［J］． Science，1994，265( 5180) : 1 850-1 852．
［6］ Sloan J，Hammer J，Zwiefka-Sibley M，et al． The opening and filling of single walled carbon nanotubes ( SWTs) ［J］． Chem Commun，1998( 3) : 347-348．
［7］ Smith B W，Monthioux M，Luzzi D E． Encapsulated C60 in carbon nanotubes［J］． Nature，1998，396( 6709) : 323-324．
［8］ Burteaux B，Claye A，Smoth B W，et al． Abundance of encapsulated C60 in single-wall carbon nanotubes［J］． Chem Phys Lett，1999，310( 1 /2) : 21-24．
［9］ Terrones M，Grobert N，Zhang J P，et al． Preparation of aligned carbon nanotubes catalyzed by laser-etched cobalt thin films ［J］． Chem Phys Lett，1998，285( 5 /6) : 299-305．
［10］ Guan L H，Shi Z J，Li H J，et al． Super-long continuous Ni nanowires encapsulated in carbon nanotubes［J］． Chem Commun， 2004( 17) : 1 988-1 989．
［11］ Pan X L，Bao X H． Reactions over catalysts confined in carbon nanotubes［J］． Chem Commun，2008( 47) : 6 271-6 281．
［12］ Serp P，Castillejos E． Catalysis in carbon nanotubes［J］． Chem Cat Chem，2010，2( 1) : 41-47．
［13］ Tsang S C，Chen Y K，Harris P J F，et al． A simple chemical method of opening and filling carbon nanotubes［J］． Nature， 1994，372( 6502) : 159-162．
［14］ Dujardin E，Ebbesen T W，Hiura H，et al． Capillarity and wetting of carbon nanotuhes［J］． Science，1994，265( 5180) : 1 850-1 852．
［15］ Sun Y F，Zhang A M，Yin Y，et al． The investigation of adsorptive performance on modified multi-walled carbon nanotubes by mechanical ball milling［J］． Mater Chem Phys，2007，101( 1) : 30-34．
［16］ Loiseau A，Pascard H． Synthesis of long carbon nanotubes filled with Se，S，Sb and Ge by the arc method［J］． Chem Phys Lett，1996，256( 3) : 246-252．
［17］ Chan L H，Hong K H，Lai S H，et al． The formation and characterization of palladium nanowires in growing carbon nano-tubes using microwave plasma-enhanced chemical vapor deposition［J］． Thin Solid Films，2003，423( 1) : 27-32．
［18］ Ruoff R S，Lorents D C，Chan B，et al． Single crystal metals encapsulated in carbon nanoparticles［J］． Science，1993， 259( 5093) : 346-348．
［19］ Seraphin S，Zhou D，Jiao J，et al． Yttrium carbide in nanotubes［J］． Nature，1993，362( 6420) : 503-505．
［20］ Kiang C H，Choi J S，Tran T T． Molecular nanowires of 1 nm diameter from capillary filling of single-walled carbon nanotubes ［J］． Phys Chem B，1999，103( 35) : 7 449-7 451．
［21］ Hirahara K，Suenaga K，Bandow S，et al． One-dimensional metallofullerenes crystal generated inside single-walled carbon nanotube［J］． Phys Rev Lett，2000，85( 25) : 5 384-5 387．
［22］ Guan L H，Shi Z J，Li M X，et al． Ferrocene-filled single-walled carbon nanotubes［J］． Carbon，2005，43( 13) : 2 780- 2 785．
［23］ Brown G，Bailey S R，Sloan J，et al． Electron beam induced in situ clusterisation of 1D ZrCl4 chains within single walled carbon nanotubes［J］． Chem Commun，2001( 9) : 845-846．
［24］ Chancolon J，Archaimbault F，Pineau A，et al． Filling of carbon nanotubes with selenium by vapor phase process［J］． J Nanosci Nanotechnol，2006，6( 1) : 82-86．
［25］ Costa P，Sloan J，Rutherford T，et al． Encapsulation of RexOy clusters within single-walled carbon nanotubes and their in tubulo reduction and sintering to Re metal［J］． Chem Mater，2005，17( 26) : 6 579-6 582．
［26］ Sloan J，Kirkland A I，Hutchison J L，et al． Structural characterization of atomically regulated nanocrystals formed within single-walled carbon nanotubes using electron microscopy［J］． Acc Chem Res，2002，35( 12) : 1 054-1 062．
［27］ Sloan J，Luzzi D E，Kirkland A I，et al． Imaging and characterization of molecules and one-dimensional crystals formed within carbon nanotubes［J］． MRS Bull，2004，29( 4) : 265-271．
［28］ Dujardin E，Ebbesen T W，Hiura H，et al． Capillarity and wetting of carbon nanotubes［J］． Science，1994，265( 5180) : 1 850-1 852．
［29］ Tsang S C，Chen Y K，Harris P J F，et al． A simple chemical method of opening and filling carbon nanotubes［J］． Nature， 1994，372( 6502) : 159-162．
［30］ Wu H Q，Wei X W，Shao M W，et al． Preparation of Fe-Ni alloy nanoparticles inside carbon nanotubes via wet chemistry ［J］． J Mater Chem，2002，12( 6) : 1 919-1 921．
［31］ Ma H，Wang L，Chen L，et al． Pt nanoparticles deposited over carbon nanotubes for selective hydrogenation of cinnamaldehyde ［J］． Catal Commun，2007，8( 3) : 452-456．
［32］ Tessonier J P，Pesant L，Ehret G，et al． Pd nanoparticles introduced inside multi-walled carbon nanotubes for selective hydrogenation of cinnamaldehyde into hydrocinnamaldehyde［J］． Appl Catal A Gen，2005，288( 1 /2) : 203-210．
［33］ Jorge J，Flahaut E，Gonzalez J F，et al． Preparation and characterization of a Fe nanowires located inside double wall carbon nanotubes［J］． Chem Phys Lett，2008，457( 4 /6) : 347-351．
［34］ Wang C，Guo S，Pan X，et al． Tailored cutting of carbon nanotubes and controlled dispersion of metal nanoparticles inside their channels［J］． J Mater Chem，2008，18( 47) : 5 782-5 786．
［35］ Ersen O，Werckmann J，Houll M，et al． 3D electron microscopy study of metal particles inside multiwalled carbon nanotubes ［J］． Nano Lett，2007，7( 7) : 1 898-1 907．
［36］ Fu Q，Weinberg G，Su D S． Selective filling of carbon nanotubes with metals by selective washing［J］． New Carbon Mater， 2008，23( 1) : 17-20．
［37］ Capobianchi A，Foglia S，Imperatori P，et al． Controlled filling and external cleaning of multi-wall carbon nanotubes using a wet chemical method［J］． Carbon，2007，45( 11) : 2 205-2 208．
［38］ Jain D，Wilhelm R． An easy way to produce α-iron filled multiwalled carbon nanotubes［J］． Carbon，2007，45( 3) : 602- 606．
［39］ Tessonnier J P，Ersen O，Weinberg G，et al． Selective deposition of metal nanoparticles inside or outside multiwalled carbon nanotubes［J］． ACS Nano，2009，3( 8) : 2 081-2 089．
［40］ Tessonnier J P，Rosenthal D，Girgsdies F，et al． Influence of the graphitisation of hollow carbon nanofibers on their functionalisation and subsequent filling with metal nanoparticles［J］． Chem Commun，2009( 46) : 7 158-7 160．
［41］ Wu M C，Li C L，Hu C K，et al． Curvature effect on the surface diffusion of silver adatoms on carbon nanotubes: Deposition experiments and numerical simulations［J］． Phys Rev B，2006，74( 12) : 125424 － 1-125424 － 8．
［42］ Shu D J，Gong X G． Curvature effect on surface diffusion: the nanotube［J］． J Chem Phys，2001，114 ( 24) : 10 922- 10 926．
［43］ Menon M，Andriotis A N，Froudakis G E． Curvature dependence of the metal catalyst atom interaction with carbon nanotubes walls［J］． Chem Phys Lett，2000，320( 5 /6) : 425-434．
［44］ Chen G，Kawazoe Y． Interaction between a single Pt atom and a carbon nanotube studied by density functional theory［J］． Phys Rev B，2006，73( 12) : 125410 － 1-125410 － 6．
［45］ Chen W，Pan X，Willinger M G，et al． Facile autoreduction of iron oxide /carbon nanotube encapsulates［J］． J Am Chem Soc，2006，1289( 10) : 3 136-3 137．［46］ Chen W，Pan X，Bao X． Tuning of redox properties of iron and iron oxides via encapsulation within carbon nanotubes［J］． J Am Chem Soc，2007，129( 23) : 7 421-7 426．
［47］ Cao F，Zhong K，Gao A，et al． Reducing reaction of Fe3O4 in nanoscopic reactors of a-CNTs［J］． J Phys Chem B，2007， 111( 7) : 1 724-1 728．
［48］ Yang H X，Song S Q，Rao R C，et al． Enhanced catalytic activity of benzene hydrogenation over nickel confined in carbon nanotubes［J］． J Mol Catal A Chem，2010，323( 1 /2) : 33-39．
［49］ Chen S M，Wu G Z，Sha M L，et al． Transition of ionic liquid ［bmim］［PF6 ］ from liquid to high-melting-point crystal when confined in multiwalled carbon nanotubes［J］． J Am Chem Soc，2007，129( 9) : 2 416-2 417．
［50］ Li Y F，Hatakeyama R，Kaneko T，et al． Synthesis and electronic properties of ferrocene-filled double-walled carbon nanotubes ［J］． Nano Technol，2006，17( 17) : 4 143-4 147．
［51］ Chen W，Fan Z L，Gu L，et al． Enhanced capacitance of manganese oxide via confinement inside carbon nanotubes［J］． Chem Commun，2010( 46) : 3 905-3 907．
［52］ Bendall J S，Llie A，Welland M E，et al． Thermal stability and reactivity of metal halide filled single-walled carbon nanotubes ［J］． J Phys Chem B，2006，110( 13) : 6 569-6 573．
［53］ Santiso E E，Kostov M K，George A M，et al． Confinement effects on chemical reactions-toward an integrated rational catalyst design［J］． Appl Surf Sci，2007，253( 13) : 5 570-5 579．
［54］ Lu T，Goldfield E M． Chemical reactivity within carbon nanotubes: a quantum mechanical study of the D + H2→DH + H reaction［J］． J Phys Chem C，2008，112( 7) : 2 654-2 659．
［55］ Halls M D，Schlegel H B． Chemistry inside carbon nanotubes: the menshutkin SN2 reaction［J］． J Phys Chem B，2002， 106( 8) : 1 921-1 925．
［56］ Liu Y C，Shen J W，Gubbins K E，et al． Diffusion dynamics of water controlled by topology of potential energy surface inside carbon nanotubes［J］． Phys Rev B，2008，77( 12) : 125438 － 1-125438 － 7．
［57］ Son H，Samsonidze G G，Kong J，et al． Strain and friction induced by van der Waals interaction in individual single walled carbon nanotubes［J］． Appl Phys Lett，2007，90( 25) : 253 113-253 115．
［58］ Yumura T，Kertesz M，Iijima S． Confinement effects on site-preferences for cycloadditions into carbon nanotubes［J］． Chem Phys Lett，2007，444( 1 /3) : 155-160．
［59］ Guo D Z，Zhang G M，Zhang Z X，et al． Visible-light-induced water-splitting in channels of carbon nanotubes［J］． J Phys Chem B，2006，110( 4) : 1 571-1 575．
［60］ Srinivasan C． Generation of hydrogen by splitting of water confined in carbon nanotubes with a camera flash［J］． Curr Sci， 2006，90( 6) : 756-757．
［61］ Pan X，Fan Z，Chen W，et al． Enhanced ethanol production inside carbon nanotube reactors containing catalytic particles ［J］． Nature Mater，2007，6( 7) : 507-511．
［62］ Chen W，Fan Z，Pan X，et al． Tuning of redox properties of iron and iron oxides via encapsulation within carbon nanotubes ［J］． J Am Chem Soc，2008，130: 9 414-9 419．
［63］ Malek A R M，Tavassoli A，Soltan J，et al． Iron catalysts supported on carbon nanotubes for Fischer-Tropsch synthesis: effect of catalytic site position［J］． Appl Catal A Gen，2009，367( 3) : 47-52．
［64］ Trépanier M，Tavasoli A，Dalai A K，et al． Co，Ru and K loadings effects on the activity and selectivity of carbon nanotubes supported cobalt catalyst in Fischer-Tropsch synthesis［J］． Appl Catal A Gen，2009，353( 2) : 193-202．
［65］ Zhang A M，Dong J L，Xu Q H，et al． Palladium cluster filled in inner of carbon nanotubes and their catalytic properties in liquid phase benzene hydrogenation［J］． Catal Today，2004，93-95: 347-352．
［66］ Castillejos E，Debouttire P J，Roiban L，et al． An efficient strategy to drive nanoparticles into carbon nanotubes and the remarkable confinement effect on their catalytic activity［J］． Angew Chem，2009，121( 14) : 2 567-2 571．
［67］ Lemus-Yegres L J，Román-Martínez M C，Salinas-Martínez de Lecea C． Hybrid catalysts based on carbon nanotubes and nanofibres［J］． J Nanosci Nanotechnol，2009，9( 10) : 6 034-6 041．
［68］ Zhang J，Müller J O，Zheng W，et al． Individual Fe-Co alloy nanoparticles on carbon nanotubes: structural and catalytic properties［J］． Nano Lett，2008，8( 9) : 2 738-2 743．
［69］ Nhut J M，Vieira R，Pesant L，et al． Synthesis and catalytic uses of carbon and silicon carbide nanostructures［J］． Catal Today，2002，76( 1) : 11-32．
［70］ Nhut J M，Pesant L，Tessonnier J P，et al． Mesoporous carbon nanotubes for use as support in catalysis and as nanosized reactors for one-dimensional inorganic material synthesis［J］． Appl Catal A Gen，2003，254( 2) : 345-363．
［71］ Li B D，Wang C，Yi G Q，et al． Enhanced performance of Ru nanoparticles confined in carbon nanotubes for CO preferential oxidation in a H2-rich stream［J］． Catal Today，2011，164( 1) : 74-79．