Crystallization of Lipids: Fundamentals and Applications in Food, Cosmetics, and Pharmaceuticals / Edition 1

Crystallization of Lipids: Fundamentals and Applications in Food, Cosmetics, and Pharmaceuticals / Edition 1

by Kiyotaka Sato
ISBN-10:
1118593928
ISBN-13:
9781118593929
Pub. Date:
04/23/2018
Publisher:
Wiley
ISBN-10:
1118593928
ISBN-13:
9781118593929
Pub. Date:
04/23/2018
Publisher:
Wiley
Crystallization of Lipids: Fundamentals and Applications in Food, Cosmetics, and Pharmaceuticals / Edition 1

Crystallization of Lipids: Fundamentals and Applications in Food, Cosmetics, and Pharmaceuticals / Edition 1

by Kiyotaka Sato
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Overview

An authoritative reference that contains the most up-to-date information knowledge, approaches, and applications of lipid crystals

Crystallization of Lipids is a comprehensive resource that offers the most current and emerging knowledge, techniques and applications of lipid crystals. With contributions from noted experts in the field, the text covers the basic research of polymorphic structures, molecular interactions, nucleation and crystal growth and crystal network formation of lipid crystals which comprise main functional materials employed in food, cosmetic and pharmaceutical industry. The authors highlight trans-fat alternative and saturated-fat reduction technology to lipid crystallization. These two issues are the most significant challenges in the edible-application technology of lipids, and a key solution is lipid crystallization.

The text focuses on the crystallization processes of lipids under various external influences of thermal fluctuation, ultrasound irradiation, shear, emulsification and additives. Designed to be practical, the book’s information can be applied to realistic applications of lipids to foods, cosmetic and pharmaceuticals. This authoritative and up-to-date guide:

  • Highlights cutting-edge research tools designed to help analyse lipid crystallization with the most current and the conventional techniques
  • Offers a thorough review of the information, techniques and applications of lipid crystals
  • Includes contributions from noted experts in the field of lipid crystals
  • Presents cutting-edge information on the topics of trans-fat alterative and saturated-fat reduction technology

Written for research and development technologists as well as academics, this important resource contains research on lipid crystals which comprise the main functional materials employed in food, cosmetic and pharmaceutical industry.


Product Details

ISBN-13: 9781118593929
Publisher: Wiley
Publication date: 04/23/2018
Pages: 528
Product dimensions: 6.90(w) x 9.70(h) x 1.00(d)

About the Author

About the Editor
KIYOTAKA SATO
is Professor Emeritus, Hiroshima University, Japan.

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Table of Contents

Preface xiii

List of Contributors xv

1 Introduction: Relationships of Structures, Properties, and Functionality Kiyotaka Sato 1

1.1 Introduction 1

1.2 Lipid Species 1

1.2.1 Hydrocarbons 1

1.2.2 Fatty Acids 2

1.2.3 Alcohols and Waxes 4

1.2.4 Acylglycerols 4

1.3 Physical States and the Functionality of Lipid Products 5

1.4 Formation Processes of Lipid Crystals 7

1.5 Polymorphism 9

1.6 Aging and Deterioration 11

1.7 Trans-Fat Alternative and Saturated-Fat Reduction Technology 13

References 15

2 Polymorphism of Lipid Crystals Kiyotaka Sato 17

2.1 Introduction 17

2.2 Thermal Behavior of Polymorphic Transformations 17

2.3 Molecular Properties 20

2.3.1 Subcell and Chain-Length Structures 20

2.3.2 Conformation of Hydrocarbon Chains 24

2.3.3 Glycerol Conformations 25

2.3.4 Polytypism 26

2.4 Fatty Acids 27

2.4.1 Saturated Fatty Acids 27

2.4.2 Unsaturated Fatty Acids 32

2.5 Monoacylglycerols and Diacylglycerols 37

2.5.1 Crystal/Molecular Structures 37

2.5.2 Polymorphic Behavior 39

2.6 Triacylglycerols (TAGs) 41

2.6.1 Crystal/Molecular Structures 42

2.6.2 Polymorphic Behavior 46

2.7 Conclusions 54

References 54

3 Molecular Interactions and Mixing Phase Behavior of Lipid Crystals Eckhard Floeter Michaela Haeupler Kiyotaka Sato 61

3.1 Introduction 61

3.2 Thermodynamic Considerations 63

3.2.1 Framework for Engineering Calculations 63

3.2.2 Phase Behavior of Co-Crystallizing Components 66

3.2.3 Governing Principles for Phase Boundaries 70

3.3 Effects of Molecular Structures on the Phase Behavior 70

3.3.1 Aliphatic Chain-Chain Interactions: n-Alkanes 71

3.3.2 Mixtures of Fatty Acids 72

3.3.3 Mixtures of Partial Glyceride Fatty-Acid Esters 81

3.3.4 Mixtures of TAGs 82

3.4 Mixing Behavior of TAGs in Natural and lnteresterified Fats 92

3.4.1 Cocoa Butter 93

3.4.2 Palm Oil 94

3.4.3 Coconut Oil 95

3.4.4 Milk Fat 95

3.4.5 Interesterified Fats 96

3.5 Crystallization Properties 97

3.6 Conclusions 98

References 100

4 Fundamental Aspects of Crystallization of Lipids Hironori Hondoh Satoru Ueno Kiyotaka Sato 105

4.1 Introduction 105

4.2 Physical and Structural Properties of Lipid Liquids 105

4.2.1 Preheating Effects 106

4.2.2 Liquid Phases of Triacylglycerols 109

4.3 Driving Forces for Crystallization 112

4.4 Nucleation 114

4.4.1 Homogeneous versus Heterogeneous 114

4.4.2 Polymorph-Dependent Nucleation Kinetics 118

4.4.3 Secondary Nucleation 121

4.4.4 Crystal Seeding 122

4,5 Kinetics of Crystal Growth 125

4.5.1 Mechanism of Crystal Growth 125

4.5.2 Crystal Growth Rate 127

4.5.3 Polymorph-Dependent Growth Rate 129

4.5.4 Spherulite 130

4.5.5 Epitaxial Growth 132

4.5.6 Morphology of Crystals 133

4.6 Conclusions 135

Acknowledgment 136

References 136

5 Supramolecular Assembly of Fat Crystal Networks from the Nanoscaie to the Mesoscale Fernanda Peyronel Nuria C. Acevedo David A. Pink Alejandro G. Marangoni 143

5.1 Introduction 143

5.2 Cryo-TEM 144

5.2.1 Challenges Associated with the Microscopic Observation of Fat Microstructure 144

5.2.2 Sample Preparation for Cryo-TEM 145

5.2.3 Nanoscale Structure Characterization 146

5.2.4 Effects of External Fields on Fat Nanostructure 148

5.3 Physical Interactions, Models, and Mathematical Methods 154

5.3.1 Models in General 155

5.3.2 Coarse-Grained Interactions: Nano to Mesoscale 156

5.3.3 Models Using Spheres 157

5.3.4 Introduction to Modeling the Statics and Dynamics of Aggregates 157

5.3.5 Static Structure Functions 158

5.3.6 Application 1: CNP Aggregation. Tristearin Solids in Triolein Oil 158

5.3.7 Application 2: Complex Oils. Tristearin Solids in Complex Oils 161

5.3.8 Application 3: Nanoscale Phase Separation in Edible Oils 162

5.4 Ultra Small Angle X-Ray Scattering (USAXS) 164

5.4.1 Principles of X-Ray Scattering 164

5.4.2 Usaxs Instrumentation at the APS 167

5.4.3 Sample Preparation 168

5.4.4 Unified Fit and Guinier-Porod Models 168

5.4.5 Experimental Results 170

5.5 Concluding Remarks 174

Acknowledgments 175

References 175

6 Effects of Dynamic Temperature Variations on Microstructure and Polymorphic Behavior of Lipid Systems 183

Laura Bayes-Garcia, Teresa Calvet, and Miquel A. Cuevas-Diarte

6.1 Introduction 183

6.2 Influence on the Polymorphic Behavior in Bulk State 183

6.2.1 Single.TAG Components 183

6.2.2 Binary Mixtures of TAGs 189

6.3 Colloidal Dispersion States 193

6.3.1 Emulsions 193

6.3.2 Organogels 196

6.4 Role of Thermal Treatments on End Food Products Properties 198

6.4.1 Milk Fats 198

6.4.2 Other Dairy Products 199

6.4.3 Cocoa Butter 200

6.4.4 Vegetable Fats 204

6.5 Conclusions 206

References 207

7 Lipid Crystal Networks Structured under Shear Flow Farnaz Maleky Gianfranco Mazzanti 211

7.1 Introduction 211

7.2 Overview of the Formation of Fat Crystals 212

7.3 Temperature Gradients and Optimal Supercooling 213

7.4 Basic Concepts on Shear Flow 214

7.5 Fat Crystallization under Shear 216

7.5.1 Shear Affects Polymorphic Transformations 216

7.5.2 Crystalline Orientation Induced by Shear Flow 219

7.5.3 Shear Affects Fat Structural Properties at the Micro- and Nano-Length Scales 224

7.5.4 Physicochemical Properties of Sheared Fat Matrices 227

7.5.5 Effects of Shear Flow on Mass Transfer Dynamics of Crystallizing and Crystallized Materials 231

7.6 Concluding Remarks 233

References 234

8 Tailoring Lipid Crystal Networks with High-Intensity Ultrasound Yubin Ye Peter R. Birkin Silvana Martini 241

8.1 Introduction 241

8.2 Fundamentals of Sonication 242

8.2.1 Acoustic Driving Force 242

8.2.2 Acoustic Cell Characteristics 243

8.2.3 Cavitation 244

8.2.4 Experimental Conditions 245

8.3 Tailoring Lipid Crystal Networks 246

8.3.1 Crystallization Kinetics 246

8.3.2 Inferential Mechanism 249

8.3.3 Postsonication Changes 250

8.4 Practical Considerations 255

8.4.1 Oxidation 255

8.4.2 Scale Up 257

8.4.3 Combination with Other Processing Methods 258

8.5 Conclusions and Future Research 258

References 259

9 Effects of Foreign and Indigenous Minor Components Kevin W. Smith Kiyotaka Sato 263

9.1 Introduction 263

9.2 Basic Understanding 264

9.3 Effects of Foreign Components 265

9.3.1 Emulsifiers 265

9.3.2 Indigenous Minor Components 276

9.4 Other Additives 276

9.5 Conclusions 278

References 279

10 Crystallization Properties of Milk Fats Christelle Lopez 283

10.1 Introduction 283

10.2 Milk Fat: A Wide Diversity of Fatty Acids and Triacylgiycerols (TAGs) 284

10.3 Crystallization Properties of Bovine Anhydrous Milk Fat (AMF) 285

10.3.1 Thermal Properties 285

10.3.2 Effect of Cooling Rate on AMF Crystals 286

10.3.3 Effect of Shear on AMF Crystals 295

10.3.4 Effect of Minor Lipid Compounds 295

10.4 Crystallization of TAGs in Bovine Milk Fat Globules and Emulsion Droplets 296

10.4.1 Effect of Cooling Rate and Tempering 298

10.4.2 Effect of the Size of Milk Fat Globules and Lipid Droplets 304

10.5 Crystallization Properties of Milk Fat in Dairy Products 306

10.6 TAG Compositions Affecting Crystallization Properties of Milk Fat 308

10.6.1 Technological Process: Dry Fractionation 308

10.6.2 Dietary Manipulations 312

10.6.3 Milk Fat from Various Mammal Species 315

10.7 Liquid TAG Phase 316

10.8 Conclusions 317

References 318

11 Crystallization Behavior of Sunflower Oil-Based Fats for Edible

Applications Maria L. Herrera Silvana Martini 323

11.1 Introduction 323

11.2 High Stearic High Oleic Sunflower Oil 324

11.2.1 Fractionation of HSHO-SFO 324

11.2.2 Crystallization Behavior 326

11.2.3 Polymorphic Behavior 329

11.3 Blends of Sunflower Oil and Milk Fat 337

11.3.1 Chemical Composition 340

11.3.2 Physical Properties 340

11.3.3 Addition of Palmitic Sucrose Ester 344

11.4 HSHO-Based CBE 347

11.5 Conclusions 348

References 348

12 Physical Properties of Organogels Developed with Selected

Low-Molecular-Weight Gelators Jorge F. Toro-Vazquez Flor Alvarez-Mitre Miriam Charó-Alonso 353

12.1 Introduction 353

12.2 Basic Aspects of LMOGs: From Molecular Architecture to Functional Assemblies 355

12.3 Why Developing Organogels with Vegetable Oils? 356

12.3.1 Vegetable Oils as Solvent in the Development of Organogels with LMOGs 357

12.3.2 Relationship between Molecular Structure of LMOGs and Physical Properties of Organogels 367

12.4 Organogels of Candelilla Wax 373

12.4.1 Rheological Properties of Candelilla Wax Organogels Developed Applying Shear Rate 373

12.4.2 Applications of Candelilla Wax Organogels 377

12.5 Conclusions 377

References 379

13 Formation and Properties of Biopolymer-Based Oleogels 385

Ashok R. Patel

13.1 Introduction 385

13.2 Formation of Polymer-Based Oleogels 386

13.2.1 Polymer Oleogelation through Direct Methods 387

13.2.2 Polymer Oleogelation through Indirect Methods 389

13.3 Properties of Polymer-Based Oleogels 393

13.3.1 Mechanical Properties 393

13.3.2 Temperature Sensitivity 394

13.3.3 Stability in Presence of Water 397

13.4 Potential Applications of Polymer-Based Oleogels 397

13.4.1 Replacement of Beef Fat in Frankfurters 397

13.4.2 Heat-Resistant Chocolates 397

13.4.3 Polymer Oleogels as Alternative to Full-Fat Shortenings 397

13.4.4 Bakery Applications of Ethyl Cellulose Oleogels 398

13.5 Conclusions: Opportunities and Challenges 398

Acknowledgments 401

References 402

14 Lipid Crystallization in Water-in-Oil Emulsions Nicole L Green Dérick Rousseau 405

14.1 Introduction 405

14.2 Basics of Emulsion Properties 406

14.3 Emulsifier Effects on W/O Emulsions 408

14.3.1 Mono- and Diacylglycerols (E471) 409

14.3.2 Sucrose Fatty-Acid Esters (E473) 411

14.3.3 Lecithins (E322) 412

14.3.4 Sorbitan Esters and Polyesters (E491-E495) 413

14.3.5 Polyglycerol Esters (E475 - E476) 415

14.4 Stabilization Modes of W/O Emulsions 415

14.4.1 Pickering Stabilization 416

14.4.2 Network Stabilization 420

14.4.3 Combined Pickering and Network Stabilization 421

14.5 Conclusions 423

References 424

15 Crystallization of Lipids in Oil-in-Water Emulsion States John N. Coupland 431

15.1 The Basic Concepts 431

15.2 Surface Nucleation 432

15.3 Polymorphic Transitions in Droplets 436

15.4 Morphology of Crystalline Droplets 437

15.5 Colloidal Stability of Crystalline Droplets 439

15.6 Conclusions 442

References 443

16 Lipid Crystals and Microstructures in Animal Meat Tissues Michiyo Motoyama Genya Watanabe Keisuke Sasaki 447

16.1 Introduction 447

16.2 Depot Fat and Crystalline State 448

16.2.1 Adipose Tissue 448

16.2.2 Triacylglycerol (TAG) Compositions of Animal Fats 449

16.3 Fat Crystals and Quality of Porcine Adipose Tissue 450

16.3.1 Polymorphism of Extracted Porcine Fat Crystals 450

16.3.2 Fat Crystals and Macroscopic Meat Quality 454

16.3.3 Application to Actual Meat and Meat Products 455

16.4 Crystal Microstructures in Adipose Tissues 460

16.5 Concluding Remarks 462

Acknowledgments 462

References 462

17 Conventional and New Techniques to Monitor Lipid Crystallization Annelien Rigolle Koen Van DenAbeele Imogen Foubert 465

17.1 Introduction: What Would Be a Perfect Technique? 465

17.2 Conventional Techniques (and Advances Made) 466

17.2.1 Pulsed Nuclear Magnetic Resonance 466

17.2.2 Differential Scanning Calorimetry 469

17.2.3 X-Ray Diffraction 472

17.2.4 Rheology 474

17.2.5 Microscopy 476

17.3 "New" Techniques with Potential for Online Monitoring 478

17.3.1 Ultrasonic Techniques 478

17.3.2 Laser Backscattering 484

17.3.3 Near-Infrared and Raman Spectroscopy 485

17.4 Conclusions 485

Acknowledgments 486

References 487

Index 493

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