LEADER 05363nam 2200697 a 450 001 9910824980803321 005 20240516164236.0 010 $a1-280-66919-5 010 $a9786613646125 010 $a981-4304-69-7 035 $a(CKB)2550000000101457 035 $a(EBL)919094 035 $a(OCoLC)794328389 035 $a(SSID)ssj0000655813 035 $a(PQKBManifestationID)12328602 035 $a(PQKBTitleCode)TC0000655813 035 $a(PQKBWorkID)10631211 035 $a(PQKB)10809111 035 $a(MiAaPQ)EBC919094 035 $a(WSP)00002652 035 $a(Au-PeEL)EBL919094 035 $a(CaPaEBR)ebr10563501 035 $a(CaONFJC)MIL364612 035 $a(EXLCZ)992550000000101457 100 $a20120611d2012 uy 0 101 0 $aeng 135 $aur|n|---||||| 181 $ctxt 182 $cc 183 $acr 200 00$aEvaporative self-assembly of ordered complex structures /$feditor, Zhiqun Lin 205 $a1st ed. 210 $aSingapore $cWorld Scientific Pub. Co.$d2012 215 $a1 online resource (395 p.) 300 $aDescription based upon print version of record. 311 $a981-4304-68-9 320 $aIncludes bibliographical references and index. 327 $aCONTENTS; Preface; 1. Drying a Sessile Droplet: Imaging and Analysis of Transport and Deposition Patterns; 1.1. Introduction; 1.2. The Basic Droplet-Drying Phenomenon; 1.3. Mathematic Models; 1.3.1. Droplet shape; 1.3.2. Governing equations; 1.3.3. Boundary conditions; 1.3.3.1. Mass transfer in the vapor phase; 1.3.3.2. Heat transfer in droplet and substrate; 1.3.3.3. Momentum transfer; 1.4. Vapor Phase Transport; 1.4.1. Analytical solutions; 1.4.2. Finite element analysis; 1.5. Height-Averaged Radial Velocity; 1.6. Full Flow Solution without Marangoni Effect 327 $a1.6.1. The derivation of the flow field1.6.2. Finite element analysis; 1.6.3. Comparison between finite element and analytical solutions; 1.6.4. Application to deposition and stretching of DNA; 1.7. Full Flow Solutions with Marangoni Effect; 1.7.1. Expressions for the velocity field with a thermal Marangoni stress boundary condition; 1.7.2. General expressions for the velocity field with Marangoni stresses; 1.7.3. Full analytical solutions; 1.7.4. Temperature field; 1.7.5. Velocity field; 1.7.6. Surface-active contaminants; 1.7.7. Marangoni stress reverses particle deposition pattern 327 $a1.8. Manipulation of Flow for Patterned Depositions1.9. Conclusions and Outlook; References; 2. Convective Assembly of Patterned Media; 2.1. Introduction; 2.2. Review of Prevailing Mechanisms in Convective Assembly; 2.2.1. Drop casting of colloidal suspensions; 2.2.2. Deposition of colloidal particles in plate-withdrawal experiments or vertical deposition; 2.3. Spontaneously Patterned Colloidal Structures; 2.3.1. Patterning by exploiting the Marangoni-Be?nard instability; 2.3.2. Patterning by fingering instabilities or unstable fluid fronts; 2.3.3. Patterning by the capillary instability 327 $a2.3.4. Patterning by contact line pinning and jumping2.3.5. Patterning by spontaneous dewetting; 2.4. Templating of Colloidal Structures Using Patterned Substrates; 2.4.1. Particle patterning exploiting surfaces of patterned surface charge; 2.4.2. Particle patterning exploiting surfaces of patterned wetting; 2.4.3. Particle patterning exploiting surfaces of patterned topography; 2.4.3.1. Capillarity based assembly in surfaces of patterned topography; 2.4.3.2. Ordering in the presence of applied fields; 2.4.3.3. The use of confinement and capillary interactions to form ordered structures 327 $a2.5. Open Issues2.6. Conclusions and Outlook; References; 3. Materials Deposition in Evaporating Menisci - Fundamentals and Engineering Applications of the Convective Assembly Process; 3.1. Introduction and Background to Convective Assembly; 3.1.1. Convective assembly in thin wetting films; 3.1.2. Drying droplets - The dynamics of deposition and structure of the deposits; 3.2. Engineering of the Process of Convective Assembly at High Volume Fractions; 3.2.1. The effect of evaporation rate and particle concentration; 3.2.2. The effect of temperature 327 $a3.2.3. The effect of electrolytes and surfactants 330 $aThe use of spontaneous self-assembly, as a lithographic tool and as an external field-free means to construct well-ordered and intriguing patterns, has received much attention due to its ease of producing complex, large-scale structures with small feature sizes. An extremely simple route to highly-ordered, complex structures is the evaporative self-assembly of nonvolatile solutes (e.g., polymers, nanoparticles, carbon nanotubes, and DNA) from a sessile droplet on a solid substrate. To date, a few studies have elegantly demonstrated that self-organized nanoscale, microscale, and hierarchically 606 $aSolubility 606 $aPolymers 606 $aColloids 606 $aDNA 615 0$aSolubility. 615 0$aPolymers. 615 0$aColloids. 615 0$aDNA. 676 $a547.2 701 $aLin$b Zhiqun$01641408 801 0$bMiAaPQ 801 1$bMiAaPQ 801 2$bMiAaPQ 906 $aBOOK 912 $a9910824980803321 996 $aEvaporative self-assembly of ordered complex structures$93985521 997 $aUNINA