about
Supramolecular polymer assembly in aqueous solution arising from cyclodextrin host-guest complexationArtificial Molecular MachinesAggregation-induced emission behavior of a pH-controlled molecular shuttle based on a tetraphenylethene moiety.Data processing on a unimolecular platform.The design, synthesis and photochemical study of a biomimetic cyclodextrin model of photoactive yellow protein (PYP).Methodology for the Simulation of Molecular Motors at Different Scales.Bright functional rotaxanes.Artificial Molecular Machine Immobilized Surfaces: A New Platform To Construct Functional Materials.The mechanical bond on carbon nanotubes: diameter-selective functionalization and effects on physical properties.Squaraine rotaxanes with boat conformation macrocyclesSelf-assembly of fluorescent inclusion complexes in competitive media including the interior of living cells.Formation of β-cyclodextrin complexes in an anhydrous environment.Plugging a Bipyridinium Axle into Multichromophoric Calix[6]arene Wheels Bearing Naphthyl Units at Different Rims.The lubricating role of water in the shuttling of rotaxanesIntroduction of heterofunctional groups onto molecular hexagons via coordination-driven self-assembly.Charge-transfer inclusion complex formation of tropylium cation with pillar[6]arenes.Supramolecular Polymers Based on Efficient Pillar[5]arene-Neutral Guest Motifs.A fluorophoric-axle-based, nonfluororescent, metallo anti-[3]pseudorotaxane: recovery of fluorescence by means of an axle substitution reaction.Mechanically interlocked and switchable molecules at surfaces.Fluorescence modulation in tribranched switchable [4]rotaxanes.A new three-way supramolecular switch based on redox-controlled interconversion of hetero- and homo-guest-pair inclusion inside a host molecule.Stimuli-responsive supramolecular gels through hierarchical self-assembly of discrete rhomboidal metallacycles.Controlling the ON/OFF threading of a terpyridine containing [2]pseudorotaxane ligand via changes in coordination geometry.Self-assembly of a double calix[6]arene pseudorotaxane in oriented channels.A controllable chiral molecular machine: movement on molecular level.Ring Shuttling Controls Macroscopic Motion in a Three-Dimensional Printed Polyrotaxane Monolith.A pH-Dependent, Mechanically Interlocked Switch: Organometallic [2]Rotaxane vs. Organic [3]Rotaxane.Four-State Molecular Shuttling of [2]Rotaxanes in Response to Acid/Base and Alkali-Metal Cation Stimuli.Photoinduced memory effect in a redox controllable bistable mechanical molecular switch.Formation of a hetero[3]rotaxane by a dynamic component-swapping strategy.Functional mesoporous silica nanoparticles for photothermal-controlled drug delivery in vivo.A perylene diimide rotaxane: synthesis, structure and electrochemically driven de-threading.Novel binding regioselectivity in the interpenetration of a non-symmetric axle into a non-symmetric pillar[5]arene wheel.Effects of axle-core, macrocycle, and side-station structures on the threading and hydrolysis processes of imine-bridged rotaxanes.Single-molecule analysis of the self-assembly process facilitated by host-guest interactions.Threading Cyclodextrins in Chloroform: A [2]Pseudorotaxane.Influence of axle length on the rate and mechanism of shuttling in rigid H-shaped [2]rotaxanes.Active-Metal Template Synthesis of a Molecular Trefoil KnotCyclodextrin-Based SwitchesSulfur-containing amide-based [2]rotaxanes and molecular shuttles
P2860
Q26766067-8C8D62D7-E235-4B42-851A-2611253DCFE5Q26783064-D4DE7A9F-4AC1-43C7-824B-D484AA456828Q30987901-D512AC2B-7434-4FAD-ABB1-FABDB1A6C5D7Q33603173-134A6405-AC2B-40A8-B8B4-A24E49AD7941Q33814327-624A64EF-5E5B-4F9A-9BD0-45FFDF248A4DQ33919887-BFE0AA60-733C-412A-88F5-B51FAE645670Q37659925-2A4BB1E3-30EF-4665-BF5E-9FAED8F9AEEEQ38683092-A44EF72B-C220-47F9-A16B-A7EC6FB9A3D6Q39842652-1A9BB38C-7279-4C31-A450-13537750A296Q39857354-988855BD-8548-4438-B726-0B7BA4D08704Q40195783-D73BF079-0009-4A11-980E-58383F675400Q41904585-7854308E-9330-4BAC-B246-88C7E7012E27Q42078056-49EC2607-1B8F-478B-9888-F2822AF78C46Q42363865-DAA743BD-C7CB-4E2A-80E8-EE0EC6184B8EQ42639022-B6541B51-84BD-49F2-8764-BA40F27BD920Q44113687-A61A4B5E-1173-4199-A694-F891BB7253AEQ44859938-3180A4D9-328E-47F0-96D4-52C43B758813Q44895895-621B7715-DE2E-44E1-B5EE-75CD3854E887Q44940195-6D1D056D-49F5-4A0D-B807-4C5D5F87EC46Q46077535-AA5179BB-9398-4F34-A9C5-2534A5FC0BDBQ46167421-A134F1C0-3AE8-4694-9838-372376CA71DBQ46693128-823E284B-E51C-4415-81C2-0706FEDE6DE2Q46798225-38573120-E4E1-429D-A7D4-A8EE8E19D814Q46978701-AFA64344-978D-4716-8C9C-7739D4225183Q47305315-4563A449-65C1-4F1F-88ED-9C9892F1F1DAQ48044270-E1E32ECF-2C86-428D-8EC7-C8B5F302468DQ48167866-AFD79761-873A-426C-8B52-FF2331D55D3DQ50916664-A1DCE03D-D265-452E-B306-E99DF68BB17EQ50975242-1DE98F7D-3102-4FF0-8F43-36B381EB2C09Q51068689-EED4B491-9052-4751-BB23-89094F030B2BQ51345728-5B5F5591-2CED-420C-AF39-C3847AF937C7Q53395922-59BF9FAB-450B-40AE-BB0C-7E8E2BAD37EAQ53586810-3ADCBBB2-00A0-4DAB-BDEC-2F31095F5DDCQ53830969-3C48C810-6919-45C8-945C-2160422D9719Q54278522-2EDA48D3-AB19-498F-8E05-243A3AA55A7CQ55176311-AA52C7AA-3A14-4AD4-9FB3-EC3EF22C670EQ55347916-1C99E50E-0098-4869-9BBF-E7D6B97E34DDQ55883368-A7B2F2AE-99AD-421B-99C4-47D2EDF6DF91Q57346691-A21FAD15-6957-4439-8107-80FFE59DC993Q57384151-597F64F7-736C-463E-8223-80455E0DC977
P2860
description
2006 nî lūn-bûn
@nan
2006年の論文
@ja
2006年学术文章
@wuu
2006年学术文章
@zh-cn
2006年学术文章
@zh-hans
2006年学术文章
@zh-my
2006年学术文章
@zh-sg
2006年學術文章
@yue
2006年學術文章
@zh
2006年學術文章
@zh-hant
name
Recent progress on switchable rotaxanes.
@ast
Recent progress on switchable rotaxanes.
@en
type
label
Recent progress on switchable rotaxanes.
@ast
Recent progress on switchable rotaxanes.
@en
prefLabel
Recent progress on switchable rotaxanes.
@ast
Recent progress on switchable rotaxanes.
@en
P356
P1476
Recent progress on switchable rotaxanes.
@en
P2093
Qiao-Chun Wang
P304
P356
10.1039/B512178G
P577
2006-02-03T00:00:00Z