Nanoparticle Technology Handbook

906 Pages·2018·33.963 MB·English

by  Makio Naito, Toyokazu Yokoyama, Kouhei Hosokawa, Kiyoshi Nogi

NANOPARTICLE TECHNOLOGY HANDBOOK
THIRD EDITION
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NANOPARTICLE
TECHNOLOGY
HANDBOOK
THIRD EDITION
Edited by
M N
AKIO AITO
T Y
OYOKAZU OKOYAMA
K H
OUHEI OSOKAWA
K N
IYOSHI OGI
Elsevier
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Contents
List of Contributors xvii 2.5. Pore Structure 91
2.6. Nanoparticle Designfor DrugDelivery System 100
Preface xxi
2.7. Nanotubes(CarbonNanotube) 105
Preface to the Second Edition xxiii
Preface to the First Edition xxv 3. Characteristics and Behavior of
Nanoparticles and Its Dispersion Systems
HIDEHIROKAMIYA,KUNIAKIGOTOH,MANABU
FUNDAMENTALS SHIMADA,TETSUOUCHIKOSHI,YOSHIOOTANI,
MASAYOSHIFUJI,SHUJIMATSUSAKA,TATSUSHI
1. Basic Properties and Measuring Methods MATSUYAMA,JUNICHITATAMI,KOHIGASHITANI,
KAZUEKURIHARA,NAOYUKIISHIDA,MICHITAKA
of Nanoparticles
SUZUKI,HIROYAABE,YASUFUMIOTSUBO,AND
TOYOKAZUYOKOYAMA,HIROAKIMASUDA, MINORUMIYAHARA
MICHITAKASUZUKI,KENSEIEHARA,KIYOSHINOGI,
3.1. IntroductionofNanoparticle Dispersion and
MASAYOSHIFUJI,TAKEHISAFUKUI,HISAOSUZUKI,
JUNICHITATAMI,KAZUYUKIHAYASHI,AND Aggregation Behavior 109
KENJITODA 3.2. Single Nanoparticle Motion inFluid 114
3.3. BrownianDiffusion 120
1.1. Size Effect and Properties ofNanoparticles 3
3.4. Adsorption Properties and Wettability of
1.2. Particle Size 9
Nanoparticle Surface 121
1.3. Particle Shape 10
3.5. InteractionsBetween Particles 123
1.4. Particle Density 13
3.6. Aggregation and Dispersion, Characterization,
1.5. Melting Point, Surface Tension, and
andControl 149
Wettability 17
3.7. RheologyofSlurry 158
1.6. Specific Surface Areaand Pore 19
3.8. SimulationofColloidalDispersion System 162
1.7. CompositeStructure 22
1.8. Crystal Structure 27 4. Control of Nanostructure of Materials
1.9. Surface Characteristics 31
HIROYAABE,YOSHINARIMIYAMOTO,MITSUO
1.10. Mechanical Property 34
UMETSU,TETSUOUCHIKOSHI,TATSUYAOKUBO,
1.11. ElectricalProperties 37
MAKIONAITO,YUJIHOTTA,TOMOKOKASUGA,
1.12. Magnetic Properties 40
AKIHIKOSUDA,HIDETOSHIMORI,REIJIMEZAKI,
1.13. Optical Property ofNanoparticle 44 TSUTOMUMORIMOTO,AKIRAAZUSHIMA,
KATSUYOSHIKONDOU,KEIZOUEMATSU,TAKAHIRO
2. Structural Control of Nanoparticles
TAKADA,KIYOSHINOGI,HIDETOSHIFUJII,JUNAKEDO,
YOSHIAKIKINEMUCHI,YOSHIOSAKKA,YUKIO
YOSHINOBUFUKUMORI,TOSHIYUKINOMURA,
YAMAGUCHI,YOSHITAKEMASUDA,ANDSHINJI
TADAFUMIADSCHIRI,SATOSHIOHARA,FUMIOSAITO,
INAGAKI
MAKIONAITO,KIKUOOKUYAMA,MASAYOSHI
KAWAHARA,HISAOSUZUKI,TAKAFUMISASAKI,
4.1. AssemblyofNanoparticlesand
MASAYOSHIFUJI,SHINJIINAGAKI,HIROFUMI
Functionalization 169
TAKEUCHI,ANDYOSHINORIANDO
4.2. Nanoparticles-Arranged Structures 170
2.1. StructureConstruction and Function 4.3. Nanopore Structure 181
Adaptation ofNanoparticles 49 4.4. Nanocomposite Structure 193
2.2. Particle Size 55 4.5. StructureControl ofNanoparticle
2.3. Particle Shape 69 Collectives bySintering andBonding 212
2.4. CompositeStructure 76 4.6. Self-Assembly 239
v
vi CONTENTS
5. Characterization Methods for 7.3. Safety ofNanoparticles 379
Nanostructure of Materials 7.4. Removal ofNanoparticles 388
SATOSHIOHARA,TADAFUMIADSCHIRI,
TAKASHIIDA,MASATOMOYASHIMA,TAKESHI
APPLICATIONS
MIKAYAMA,HIROYAABE,YUICHISETSUHARA,
KIYOSHINOGI,MINORUMIYAHARA,KENJIKANEKO,
ANDAKIRAOHTOMO Category A - Medical, Cosmetic, Biological
5.1. Nanostructure and Function 1. DevelopmentofNewCosmeticsBasedon
(Characterization ofLocal Nanoparticles
Nanostructure) 255
HIROSHIFUKUI
5.2. Crystal Structure 256
5.3. Surface Structure 265 1. Useof Nanoparticles 399
5.4. Nanopore Characterization 282 2. Useas Compound Particles 401
5.5. Grain Boundaries and 3. Future Development 404
Interfaces 288 References 404
5.6. EvaluationMethods for Oxide
Heterostructures 297 2. Design ofNanoparticles forOralDelivery
of Peptide Drugs
6. Evaluation Methods for Properties of
HIDEKIICHIKAWA
Nanostructured Body
TAKEHISAFUKUI,JUNICHITATAMI,SHUJISAKAGUCHI, 1. ParticulateDesign andFunctions 407
FUMIHIROWAKAI,TETSUYASENDA,TAKASHIAKATSU, 2. Case Studies 409
TETSUYABABA,YUJINOGUCHI,MASARUMIYAYAMA, References 413
ATSUSHIYAMAMOTO,SUSUMUYONEZAWA,
TOMOICHIROOKAMOTO,MOTOHIDEMATSUDA, 3. Development of Photocatalyst Inserted
MASANOBUAWANO,TSUTOMUKATAMOTO,KENJI Into Surface of Porous Aluminosilicate
TODA,SOSHUKIRIHARA,AKIHIKOSUDA,AND
TOSHIOKAKUI
KIYOSHINOGI
1. StructureofTiO eAluminosilicate Complex 415
6.1. Functionality ofNanostructures 2
2. PhotocatalysisofTiO eAluminosilicateComplex 416
and Their Characteristic 2
3. PhotoenduaranceofPaper With TiO e
Evaluation 301 2
Aluminosilicate Complex 417
6.2. Mechanical Properties 306
References 418
6.3. Thermophysical Properties 318
6.4. Electric Properties 325
4. Nanoparticle Formation of DNA
6.5. Electrochemical Properties 338
(Globule Transformation)
6.6. MagneticProperties 349
6.7. Optical Properties 352 SHINJIKATSURA
6.8. Catalytic Property 357
1. Tolerance ofDNA NanoparticlesAgainst
6.9. Properties ofGas Permeation
Mechanical Stress 419
and Separation Membranes 360
2. Micromanipulation of DNA Nanoparticles 420
7. Environmental and Safety Issues With References 422
Nanoparticles
5. Addressing of Nanoparticles by Using
HISAOMAKINO,HITOSHIEMI,AKIMASAYAMAGUCHI, DNA Molecules
EIJIIRITANI,NORIKAZUNAMIKI,TOSHIHIKOMYOJO,
ANDKENJIYAMAMOTO SHINJIKATSURA
7.1. Introduction 365 1. StretchingofDNAMolecules 423
7.2. Nanoparticles and Environment 365 2. AddressingofNanoparticles 424
References 426
CONTENTS vii
6. Development of the 3. Functional Cosmetics Using PLGA
Thermoresponsive Magnetic Nanospheres 448
Nanoparticle and Its Deployment References 450
in the Biotechnology Field
10. PLGA Nanoparticle Design and
AKIHIKOKONDO Preparation for DDS and Medical
Device
1. Magnetic Nanoparticle Material 427
2. What Is a Thermoresponsive HIROYUKITSUJIMOTOANDYOSHIAKI
Polymer? 427 KAWASHIMA
3. Thermoresponsive Magnetic
1. Introduction 451
Nanoparticles 428
2. PLGA Nanoparticle DDSs 451
4. Application Examplesofthe
3. Applied Technology With PLGA
Thermoresponsive Magnetic Nanoparticles
Nanoparticles as Base Carrier 452
to the BiotechnologyField 429
4. PLGA Nanoparticle System Platforms
5. FuturePerspective 434
andImplementationin Nanomedical
References 434
Systems 454
7. Pinpoint Drug and Gene Delivery 5. Conclusion 459
References 460
SHUN’ICHIKURODA
11. PLGA Nanosphere Technology for
1. Bio-Nanocapsules 435
Novel Nanomedicine and Functional
2. Potential Applications ofBio-Nanocapsule 437
Cosmetics
3. Assignment 438
4. Conclusion 438 YUSUKETSUKADA,AIKOSASAI,HIROYUKI
References 438 TSUJIMOTO,HIROMITSUYAMAMOTO,ANDYOSHIAKI
KAWASHIMA
8. A Cancer Treatment
Strategy That Combines the Use of 1. Introduction 461
2. Preparation Methodand Application for
Inorganic/Biocomplex Nanoparticles
Practical UseofPLGA NS 461
With Conventional Radiation
3. DrugDelivery System Formulation and
Therapy
PharmacologicalPerformance ofPLGA NS 462
KENTAMORITA,YUYANISHIMURA, 4. ApplicationofPLGA NSfor Cosmetics 464
TAKAHIROSUZUKI,CHIAKIOGINO, 5. Conclusions 466
ANDAKIHIKOKONDO References 467
1. Introduction 439
12. Delivery to the Brain
2. Screening for Inorganic Nanoparticles
Applicable toRadiosensitizing 440 HIROMITSUYAMAMOTO
3. Cancer Therapy Using a Combination
1. SurfaceModificationtoImprovetheNanoparticle
of InorganicNanoparticlesandX-Ray
Distributionin the Brain 469
Irradiation 440
2. Effect ofAdministration Route on the Brain
4. Bio-Nanocapsule 441
Distribution 471
5. Conclusions 442
3. Perspective ofBrain Targeting With
References 443
Nanoparticles 472
References 472
9. Development of Functional Skin Care
Cosmetics Using Biodegradable PLGA
13. Bioimaging With
Nanospheres
Quantum Dots
HIROYUKITSUJIMOTOANDKAORIHARA
KENJIYAMAMOTO
1. Nanocosmetics ThatWhiten Skin
1. Developments ofQuantum Dots 473
andEliminate Wrinkles 445
2. DevelopmentofBioimaging 474
2. Evaluation ofthe Cutaneous Permeabilityof
3. Bioimagingand Quantum Dots 474
PLGA Nanospheres and Their Functional
4. Quantum Dots Label for the Antibody 476
Effect 446
viii CONTENTS
5. InVivo Imagingof the Quantum DotseStained 19. Mechanical Synthesis of Composite
Cell: The Localization inOrgans 476 Oxide and Its Application for SOFC
6. Observation ofthe Localization From Cathode
Outside ofthe Body 477
KOUHEIHOSOKAWA,TOYOKAZUYOKOYAMA,
Reference 477
AKIRAKONDO,ANDMAKIONAITO
14. Application of Quantum Dots for
1. Mechanical Processing for Material Synthesis
Biomedical Engineering
and Particle Bonding 505
KENJIYAMAMOTO 2. Mechanical Synthesis ofLaMnO3 Using
Nanosized Raw Materials 506
1. Applicationfor Laboratory Test 479 3. The Mechanical Conditions ofthe
2. Diagnosis by ImagingAnalysis 480 Attrition-Type Mill Requiredfor the
Synthesis 506
15. Application of Polymeric Nanoparticles
4. One-Step Mechanical Processing to
and Polymeric Micelles for Treatment of
Prepare LSM/ScSZ CompositeParticles
Biofilm Infection Disease
for the SOFC Cathode 507
HIROMITSUYAMAMOTOANDCHISATOTAKAHASHI 5. Evaluation ofSOFC Performance 509
6. Conclusions 510
1. Introduction 481 References 510
2. Antibacterial Effect ofPLGA Nanoparticle
Formulations 482 20. A Dye-Sensitized Solar Cell Utilizing
3. Antibacterial Effect ofPolymeric Micelle Metal Nanoparticle
Formulations 484
MANABUIHARA
4. Conclusions 486
References 486 1. What Is a Dye-Sensitized Solar Cell? 511
2. Enhancement of the Absorption
Category B - Energy, Batteries, Coefficient ofthe Ruthenium Dye, With
Environmental the Silver Nanoparticle Produced via
Vacuum Evaporation on the Quartz
16. Development of High-Performance
Substrate 512
Electrochemical Reactors
3. Enhancement of the AbsorptionCoefficient of
MASANOBUAWANO Silver NanoparticleeRutheniumDye Within
Porous TiO 514
2
1. Environmental Purificationby
References 515
Electrochemical Reactors 487
2. NOx Decomposition inthe Exhaust Gas 21. Room Temperature Fabrication of
With Electrochemical Reactors 487 Electrode-Solid Electrolyte Composite for
3. Development ofthe Electrochemical Reactors
All-Solid-State Rechargeable Lithium
for Simultaneous PurificationofNO /PM 490
x Batteries
References 492
YASUTOSHIIRIYAMA
17. Superior Thermal Insulation Film With
1. Introduction 517
Transparency Achieved by Hollow Silica
2. AerosolDeposition 517
Nanoparticles
3. Densification ofElectrodeand Solid
MASAYOSHIFUJIANDCHIKATAKAI Electrolyte Powders 518
4. Conclusions 522
1. IntroductionofThermal InsulationTechniques 493
References 523
2. Howto Prepare NanospacedPolymer Film 494
3. Thermal Insulation Performance on Field Test 495 22. Enhancement of the Performance of
References 497
Insulating Materials
18. Development of Fuel Cells MIKIMASAIWATA
TAKEHISAFUKUI 1. Withstand Voltage Characteristics 525
2. Tracking-Resistanceand Erosion-Resistance
1. Development Task of Fuel Cells 500
Characteristics 527
2. Development ofHigh-Performance Solid Oxide
3. Thermal Characteristics 527
Fuel Cells Using Nanoparticle Technology 500
References 528
References 503
CONTENTS ix
23. Collection Technology 3. Smart Recycling ofComposite Materials 549
for Nanoparticles in Flue Gas References 550
HISAOMAKINOANDNAOKINODA 28. Improvement of Lithium-Ion Battery
Performances by Controlling
1. Introduction 529
2. Outline ofDust Collection Technologies 529 Nanocomposite Structure
3. Collection Characteristics ofElectrostatic
TAKAHIROKOZAWAANDMAKIONAITO
Precipitators 530
4. Collection Characteristics ofBag Filters 530 1. CompositeGranule StructureConsisting of
Further Reading 531 Nanoparticles 551
2. CompositeGranule With aPorous Structure 552
24. Powder Technology 3. High-VoltageCathodeParticle With aGradient
and Nanotechnology Contributed Composition 553
for Clean Utilization of Coal 4. Nanocomposite Electrode Particles for
All-Solid-State LiBatteries 556
HISAOMAKINOANDNAOKINODA
References 557
1. Powder Technology and Nanotechnologyin
29. Dendrimers and Their Application to
Pulverized Coal CombustionPowerPlant 533
Organic Electronics Devices
2. Powder Technology and Nanotechnologyof
High-Efficiency Coal Utilization System 534 NORIFUSASATOHANDKIMIHISAYAMAMOTO
3. Investigation ofCO Capture and
2
StorageMethod 535 1. Synthesis and Structure ofDendrimer 559
4. Upgrading ofLow-Rank Coal and Biomass 536 2. Metal-AssemblingProperty ofDendrimer 559
References 537 3. Applicationto Electronic Devices 561
References 562
25. Zeolite Membrane
30. Ceramic Filter for Trapping Diesel
MOTOHIDEMATSUDA
Particles
1. Characteristics 539
HARUHIDESHIKANO
2. Synthesis 539
3. Separation Properties ofZeolite Membranes 541 1. Production ofParticulate Matter 563
References 542 2. Trapping ofParticulate Matter 563
3. Pressure Loss 565
26. Development of Nanoparticle 4. Features ofPorous Silicon Carbide 565
Composite Technique for Low Pt-Loading 5. Functions andCharacteristicsof Diesel
PEFCs Particulate Filter 566
6. Future ofFilters for Trapping Diesel Particles 566
HIROKAZUMUNAKATA
References 567
1. Particle Design for PEFC Catalysts 543
31. Development of Exhaust Catalyst
2. Preparation ofPt/CeWC Composite Particle
for PEFCAnode 543 AKIHIKOSUDA
3. Preparation ofPt/CeSnO CompositeParticle
2
1. Supported Metal Catalyst 569
for PEFCCathode 545
2. Oxygen-Storage Capacity ofCatalyst 570
References 546
3. ImprovementofOSC ofCatalyst 570
27. Novel Recycling of FibereReinforced 4. ImprovementofThermal Resistance ofCatalyst 571
Plastics by Using Nanoparticle Bonding References 572
MAKIONAITO,HIROYAABE,AKIRAKONDO,AND 32. Electrical Conductive
NORIFUMIISU
CNT-Dispersed Si N Ceramics
3 4
1. Introduction 547 JUNICHITATAMI
2. The Development ofNovel RecyclingProcess
for GFRP 547 References 577