Sustainable Protein Sources

Author: Nadathur   Sudarshan;Wanasundara   Janitha P. D. Dr.;Scanlin   Laurie  

Publisher: Elsevier Science‎

Publication year: 2016

E-ISBN: 9780128027769

P-ISBN(Paperback): 9780128027783

Subject: R151.2 nutritional biochemistry

Keyword: 分子生物学,微生物学,农业经济

Language: ENG

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Description

Protein plays a critical role in human nutrition. Although animal-derived proteins constitute the majority of the protein we consume, plant-derived proteins can satisfy the same requirement with less environmental impact. Sustainable Protein Sources allows readers to understand how alternative proteins such as plant, fungal, algal, and insect protein can take the place of more costly and less efficient animal-based sources.

Sustainable Protein Sources presents the various benefits of plant and alternative protein consumption, including those that benefit the environment, population, and consumer trends. The book presents chapter-by-chapter coverage of protein from various sources, including cereals and legumes, oilseeds, pseudocereals, fungi, algae, and insects. It assesses the nutrition, uses, functions, benefits, and challenges of each of these proteins. The book also explores opportunities to improve utilization and addresses everything from ways in which to increase consumer acceptability, to methods of improving the taste of products containing these proteins, to the ways in which policies can affect the use of plant-derived proteins. In addition, the book delves into food security and political issues which affect the type of crops that are cultivated and the sources of food proteins. The book concludes with required consumer choices such as dietary changes and future research ideas that necessitate vigorous debate for a sustainable planet.

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Chapter

1 Proteins in the Diet: Challenges in Feeding the Global Population

1.1 Introduction

1.2 Proteins and Their Role in Food and Diet

1.2.1 Defining Proteins: Structure Levels and Existing Classification Systems

1.2.1.1 Structural Levels

1.2.1.2 Classification of Proteins

1.2.2 Protein as a Macronutrient in Food

1.2.2.1 Allergenicity and Food Protein

1.2.3 Protein as a Macromolecule in Food Systems

1.2.4 Overview of Plant-Derived Protein and Alternate Protein Sources

1.3 Sustainable Sources of Proteins

1.3.1 Dietary Patterns Around the Globe

1.3.2 Health and Wellness Trends

1.3.3 Product Trends

1.4 Reasons to Consume Plant and Alternate Proteins

1.4.1 Living on the Earth in 2050

1.4.1.1 Population Increases and Their Effects

1.4.2 Natural Resources for Agriculture: Land, Water, Nitrogen

1.4.2.1 Land for Food, Feed, or Fuel?

1.4.2.2 Will Water Become a Commodity?

1.4.2.3 Fossil Energy, Nitrogen, and Proteins

1.4.3 Global Warming and Climate Change

1.4.4 Quality of Life

1.5 Meat Consumption: Why We Are on the Current Path

1.6 Role of the Consumer for the Greater Good

References

I. Plant Derived Proteins

2 Soy Protein: Impacts, Production, and Applications

2.1 Introduction

2.2 Production

2.3 Soybean Protein Recovery: Protein Isolation

2.4 Types of Soy Proteins and Protein Products

2.5 Sustainability

2.5.1 Two Life Cycle Inventory Models

2.5.2 Cradle-to-Gate Life Cycle Impact Assessment

2.5.2.1 Carbon Footprint

2.5.2.2 Water Use Footprint (Blue Water)

2.5.2.3 Land Use Footprint

2.5.3 Other Perspectives on Sustainability of Soy

2.5.3.1 Energy Use at Farm Level

2.5.3.2 Water Use at Farm Level

2.5.3.3 Land Use at Farm Level and Deforestation

2.5.3.4 Use of Hexane in Soy Milling

2.5.3.5 ISP Manufacturing

2.6 Nutritive Value

2.6.1 Protein Nutrition

2.6.2 Muscle Health

2.6.3 Weight Management and Satiety

2.6.4 Cardiovascular Health

2.6.5 Nutritional Relevance of Other Seed Constituents

2.6.5.1 Trypsin Inhibitors

2.6.5.2 Phytates

2.6.5.3 Oxalates

2.6.5.4 Isoflavones

2.6.6 Protein Allergies

2.6.7 A Good Source of Protein Across the Lifespan

2.7 Uses and Functionality

2.8 Application and Current Products

2.9 Potential New Uses, Issues, and Challenges

2.9.1 Generational Flavor Improvements

2.9.2 Genetic Modified and Identity Preserved

2.10 Concluding Remarks

References

3 Rice Protein and Rice Protein Products

3.1 Introduction

3.2 Production of Rice

3.2.1 Land Use

3.2.2 Water Use

3.2.3 Energy Use

3.3 Processing of Rice and Rice Proteins

3.3.1 Proteins in Rice

3.3.1.1 Protein Localization

3.3.1.2 Protein Types

3.3.1.2.1 Albumins

3.3.1.2.2 Globulins

3.3.1.2.3 Prolamins

3.3.1.2.4 Glutelins

3.3.2 Production of Rice Protein

3.3.2.1 Rice Bran Protein Products

3.3.2.2 Endosperm Protein

3.4 Functional Properties and Applications

3.5 Allergenicity, Off Tastes, and Antinutritional Factors

3.5.1 Allergenicity

3.5.2 Flavor Compounds and Off Tastes

3.5.3 Antinutritional Factors

3.5.3.1 Enzymes

3.5.3.2 Enzyme Inhibitors

3.6 Potential New Uses and Emerging Health Benefits

3.6.1 Reduction of Cholesterol and Triacylglycerol Levels

3.6.2 Suppression of Hyperglycemia

3.6.3 Antioxidative Activity

3.6.4 Reduction in Hypertension

3.6.5 Ileum-Contracting, Antiopioid, and Phagocytosis-Promoting Activities

3.7 Concluding Remarks

References

4 Proteins From Wheat: Sustainable Production and New Developments in Nutrition-Based and Functional Applications

4.1 Introduction

4.1.1 Agricultural Production

4.1.2 Land Use

4.1.3 Water Use

4.1.4 Energy Use

4.1.5 Sustainability of Wheat

4.2 Proteins From Wheat

4.2.1 Gluten Extraction From Wheat

4.2.2 Protein Hydrolysis

4.3 Nutrition and Digestibility, Allergen, and Antinutritive Aspects

4.3.1 Amino Acid Composition

4.3.2 Digestibility Data and Mechanism

4.3.3 Allergenicity and Intolerance Mechanism

4.3.4 Antinutritive Factors

4.4 Protein Functionality

4.4.1 Solubility

4.4.2 Foaming

4.4.3 Emulsification

4.4.4 Satiety

4.5 Applications in Food and Feed

4.5.1 Gluten in Bread Application

4.5.2 Animal Nutrition

4.5.3 Breakfast Cereals and Pasta

4.5.4 Protein-Enriched Foods

4.5.5 Uses in Vegetable-Based Meat Alternatives

4.5.6 New Product and Technology for Wheat-Based Meat

4.6 Conclusion

References

5 Proteins From Sorghum and Millets

5.1 Introduction

5.2 Sorghum and Millet Production: Land, Water, and Energy Use

5.2.1 Production

5.2.2 Land-Use Efficiency

5.2.3 Water Efficiency

5.2.4 Cultivation With Legumes

5.2.5 Sustainable Agriculture

5.2.6 Cost of Grains

5.3 Protein Nutritive Quality

5.3.1 Protein Quality

5.3.2 Antinutrients

5.3.3 Protein Toxicity

5.3.4 Other Nutrients, Phytochemicals, and Nutritional Quality Issues

5.4 Protein Types, Composition, and Structure

5.4.1 Prolamin Proteins

5.4.2 Protein Isolation and Functionality

5.4.3 Potential Applications for Kafirin

5.5 Sorghum and Millet Processing

5.5.1 Effects of Cooking on the Proteins

5.5.2 Milling

5.5.3 Malting

5.5.4 Lactic Acid Fermentation

5.5.5 Brewing and Bioethanol Production

5.5.6 Compositing With Legumes

5.6 Developments in Improving Sorghum and Millet Protein Quality

5.6.1 Sorghum

5.6.2 Millets

5.7 Conclusion

References

6 Protein From Oat: Structure, Processes, Functionality, and Nutrition

6.1 Introduction

6.2 Oat as a Protein Crop

6.2.1 Land Use

6.2.2 Water Use

6.2.3 Energy Use

6.2.4 Health Aspects of Oats

6.3 Localization and Structure of Oat Proteins

6.3.1 Protein in the Oat Grain

6.3.2 Oat Protein Fractions

6.3.2.1 Oat Globulins

6.3.2.2 Oat Prolamins

6.3.2.3 Minor Protein Fractions

6.3.3 Nutritional Properties and Suitability for Celiac Patients

6.4 Manufacture of Oat Protein Isolates and Concentrates

6.4.1 Wet Methods

6.4.2 Dry Methods

6.5 Functionality and Potential Uses

6.5.1 Functional Characteristics of Oat Protein

6.5.2 Applications of Oat Protein

6.5.2.1 Baked Products

6.5.2.2 Extruded Products

6.5.2.3 Vegan Products

6.6 Future Outlook

References

7 Hemp Seed (Cannabis sativa L.) Proteins: Composition, Structure, Enzymatic Modification, and Functional or Bioactive Prop...

7.1 General Overview

7.1.1 Growing Regions and Yield

7.1.2 Land Use

7.1.3 Water Use

7.1.4 Energy Use and Cost

7.1.5 Plant and Seed

7.1.6 Seed Composition and Protein Quality

7.2 Major Seed Proteins

7.2.1 Globulin

7.2.2 Albumin

7.2.3 Sulfur-Rich Proteins

7.2.4 Allergenicity

7.3 Functional Properties of Hemp Seed Protein Products

7.3.1 Defatted Flour

7.3.2 Protein Concentrates

7.3.3 Protein Isolates

7.4 Bioactive Properties of Hemp Seed Proteins and Peptides

7.4.1 Renal Disease Modulation

7.4.2 Antioxidant

7.4.3 Antihypertensive

7.5 Concluding Remarks

References

8 Protein From Flaxseed (Linum usitatissimum L.)

8.1 Introduction

8.1.1 Plant and Seeds

8.1.2 Chemical Composition

8.2 Sustainability of Flax: Land, Water, and Energy Use

8.2.1 Land Use

8.2.2 Water Use

8.2.3 Energy Use

8.3 Processing of Proteins and Types of Products From Flaxseed

8.4 Nutritive Value of Flaxseed Proteins

8.4.1 Amino Acids and Proteins

8.4.2 Allergenicity of Flaxseed Proteins

8.5 Uses and Functionality of Flaxseed Protein

8.6 Application and Current Products

8.7 Potential New Uses, Issues, and Challenges

8.8 Concluding Remarks

References

9 Pea: A Sustainable Vegetable Protein Crop

9.1 Introduction

9.1.1 Cultivation

9.1.2 Cultivars

9.2 Sustainability, Energy, and Water Use

9.3 Processing of Peas

9.4 Nutritive Value of Peas

9.4.1 Major Components

9.4.2 Minerals and Vitamins

9.4.3 Antinutritive Factors

9.4.4 Bioavailability

9.4.5 Allergenicity

9.4.6 Off-Tastes

9.5 Uses and Functionality

9.5.1 Whole Peas

9.5.2 Split Peas

9.5.3 Pea Flour

9.5.4 Pea Proteins

9.5.5 Pea Starch

9.5.6 Pea Fiber

9.6 Applications and Current Products

9.6.1 Baked Goods

9.6.2 Pasta and Noodle

9.6.3 Extruded Snacks

9.6.4 Meat and Meat Analogs

9.7 Health Benefits of Peas

9.8 Conclusion

References

10 Lupin: An Important Protein and Nutrient Source

10.1 Introduction

10.1.1 Cultivation of Lupinus Species

10.2 Sustainability

10.2.1 Land Use

10.2.2 Water Use

10.2.3 Energy Use

10.3 Food (Protein) Dependence of the EU

10.4 Processing of Lupin

10.4.1 Flour

10.4.2 Concentrate

10.4.3 Isolates

10.5 Nutritive Value

10.5.1 Protein

10.5.2 Fats

10.5.3 Carbohydrates

10.5.4 Minerals and Vitamins

10.5.4.1 Heavy Metals

10.5.4.2 Minerals

10.5.5 Evaluation of the Protein Quality and Digestibility of Lupin

10.6 Antinutritive Factors and Allergenicity

10.6.1 Antinutritive Factors

10.6.1.1 Phytates and Lectins

10.6.1.2 Alkaloids

10.6.1.3 Raffinose Family Oligosaccharides

10.6.2 Off-Tastes

10.6.3 Allergenicity

10.7 Uses and Functionality

10.7.1 Lupin Flour

10.7.2 Lupin Protein Concentrate

10.7.3 Lupin Protein Isolate

10.8 Application/Current Products

10.8.1 Bakery Applications

10.8.2 Egg Replacement in Baked Goods

10.8.3 Application of Lupin Protein Concentrate in Batters

10.9 Current Food Products

10.9.1 Nutritional Applications

10.10 Health Aspects of Lupin

10.10.1 Cholesterol

10.10.2 Bowel Function

10.10.3 Satiety and Glucose Blood Level

10.10.4 Blood Pressure

10.10.5 Other Health Effects

10.11 Conclusion

References

11 Lentil: Revival of Poor Man’s Meat

11.1 Introduction

11.2 Sustainability

11.2.1 Land Use

11.2.2 Water Use

11.2.3 Energy Use

11.2.4 Diseases Affecting Lentil Plant

11.3 Lentil Proteins: Characterization and Processing Into Concentrates and Isolates

11.3.1 Characterization

11.3.2 Processing Into Protein Concentrates or Isolates

11.4 Nutritional Value, Antinutrients, and Allergenicity

11.4.1 Nutritive Value

11.4.2 Phytochemicals

11.4.3 Protein Quality

11.4.4 Antinutritional Factors and Protein Digestibility

11.4.5 Allergenicity

11.5 Applications and Current Products

11.6 Protein Functionality

11.7 Health Properties

11.7.1 Bioactive Peptides

11.7.2 Chronic Diseases

11.8 Off-Flavors Associated With Lentil Flour and Lentil Protein Ingredients

11.9 Conclusion

References

12 Underutilized Protein Resources From African Legumes

12.1 Introduction

12.2 Marama Beans

12.2.1 Introduction (Land, Water, Sustainability)

12.2.2 Composition of Marama Beans

12.2.3 Composition of Marama Proteins

12.2.4 Protein Isolation

12.2.5 Nutritive Value, Allergenicity, and Antinutritive Factors

12.2.6 Current and Future Uses and Applications

12.2.7 Off-Tastes Associated With Marama Beans

12.2.8 Issues and Challenges

12.3 Bambara Groundnut

12.3.1 Introduction (Land, Water, Sustainability)

12.3.2 Composition of Bambara Groundnut

12.3.3 Composition of Bambara Proteins

12.3.4 Protein Isolation

12.3.5 Nutritive Value, Allergenicity, and Antinutritive Factors

12.3.6 Current and Future Uses and Applications

12.3.7 Off-Tastes Associated With Bambara Groundnut

12.3.8 Issues and Challenges

12.4 Conclusion

References

13 Peanut Products as a Protein Source: Production, Nutrition, and Environmental Impact

13.1 Introduction

13.2 Environmental Impact and Sustainability

13.2.1 Climate Change Impacts

13.2.2 Water Use Impacts

13.2.3 Land Use Impacts

13.3 Peanut Cultivation and Production

13.3.1 Production Regions

13.3.2 Cultivation Techniques

13.4 Peanut Processing

13.4.1 Peanut Drying

13.4.2 Grading

13.4.3 Shelling

13.4.4 Product Processing

13.5 Uses, Functionality, and Current Products

13.6 Nutritional Value

13.6.1 Calories, Fats, Protein, Carbohydrates

13.6.2 Amino Acids and Protein

13.6.3 Micronutrients

13.6.4 Taste Profiles and Allergenicity

13.7 Conclusions

Acknowledgments

References

14 Quinoa as a Sustainable Protein Source: Production, Nutrition, and Processing

14.1 Introduction

14.2 Production of Quinoa

14.2.1 Growing Regions and Yields

14.2.2 Land Use

14.2.3 Water Use

14.2.4 Energy Use and Cost

14.3 Morphology

14.4 Nutritional Quality

14.4.1 Protein Content

14.4.2 Protein Quality

14.4.3 Protein Digestibility

14.4.3.1 Animal Feeding Experiments

14.4.3.2 Human Feeding Experiments

14.4.4 Macro- and Micronutrients and Phytochemicals

14.4.4.1 Lipids

14.4.4.2 Carbohydrates

14.4.4.3 Fiber

14.4.4.4 Vitamins and Minerals

14.4.4.5 Phytochemicals

14.4.5 Antinutritional Factors and Allergenicity

14.4.5.1 Antinutritional Factors

14.4.5.2 Allergenicity

14.5 Processing Methods

14.5.1 Quinoa Seed From “Farm to Fork”

14.5.2 QPCs and Isolates

14.6 Quinoa Protein Functionality, Off-Tastes, and Challenges

14.7 Concluding Remarks and Future Research Needs

References

15 Amaranth Part 1—Sustainable Crop for the 21st Century: Food Properties and Nutraceuticals for Improving Human Health

15.1 Introduction

15.2 Nutritional Components in Amaranth

15.3 Amaranth Proteins and Amino Acids for Human Nutrition

15.4 Bioactive Peptides Related to Antihypertensive Functions

15.5 Antioxidant Capacities of Amaranth Peptides

15.6 Potential Uses of Amaranth Proteins in the Food Industry

15.7 Genetic Engineering of Amaranth Proteins

15.8 Concluding Remarks

Acknowledgments

References

16 Amaranth Part 2–Sustainability, Processing, and Applications of Amaranth

16.1 Sustainability of Amaranth Production

16.1.1 Origin and Distribution

16.1.2 Production and Yield

16.1.3 Land, Water, and Energy Uses

16.1.4 Harvesting

16.1.5 Postharvest Processing (Cleaning and Storage)

16.1.6 Production Cost

16.2 Processing of Amaranth

16.2.1 Milling and Fractionation

16.2.2 Wet Milling for Production of Starch-Rich, Fiber-Rich, or Protein-Rich Fractions (Protein Concentrates and Isolates)

16.3 Food Applications

References

17 Chia—The New Golden Seed for the 21st Century: Nutraceutical Properties and Technological Uses

17.1 Introduction

17.2 Sustainability of Chia

17.2.1 Production

17.2.2 Land Use

17.2.3 Water Use

17.2.4 Energy Use

17.3 Consumption of Chia

17.4 Nutritional Value

17.4.1 Fiber

17.4.2 Lipids

17.4.3 Phenolic Compounds

17.4.4 Protein Content and Amino Acids

17.4.4.1 Chia Globulins

17.4.4.2 Peptides With Possible Antihypertensive Effects

17.4.5 Polyphenols, Oil, and Peptides With Antioxidant Capacity

17.5 Chia Compounds Significant to the Food Industry

17.5.1 Antioxidant Properties

17.5.2 Health Benefits

17.5.3 Functional Benefits

17.6 The Future of Chia Seeds: Molecular Engineering and Gene Editing

17.7 Concluding Remarks

Acknowledgments

References

II. Upcoming Sources of Proteins

18 Proteins From Canola/Rapeseed: Current Status

18.1 Introduction

18.2 Production of C/RS

18.2.1 Land Use

18.2.2 Water Use

18.2.3 Energy Use

18.3 Proteins of C/RS

18.3.1 Chemical Composition of the Seed

18.3.2 Protein Types of C/RS

18.3.2.1 Cruciferin

18.3.2.2 Napin

18.3.2.3 Minor Proteins

18.4 Processes of Protein Product Preparation

18.4.1 Significant Considerations

18.4.2 Involving Aqueous Alkaline Conditions

18.4.3 Processes Targeting Specific Seed Protein Types/Fractions

18.4.3.1 Protein Micelle Mass Formation

18.4.3.2 Chromatographic Separation

18.4.3.3 Solubility-Based Separation

18.4.4 Combination of Chemical and Physical Methods

18.5 Nutritional Value

18.5.1 Amino Acid Composition

18.5.2 Digestibility in Human and Animal Models and the Processing Effects

18.6 Antinutritional Factors of C/RS

18.6.1 Glucosinolates

18.6.2 Phytates

18.6.3 Phenolics

18.6.4 Carbohydrates and Fiber

18.7 Allergenicity of C/RS Proteins

18.8 Functional Properties of Protein Products

18.8.1 Solubility

18.8.2 Emulsifying Properties

18.8.3 Heat-Induced Gel Formation Ability

18.8.4 Foaming Properties

18.9 Applications and Current Products

18.9.1 Potential Food Applications as Protein Supplements or Bulk Proteins

18.10 Potential New Uses, Issues, and Challenges

18.10.1 New Uses

18.10.1.1 Bioactive Peptides

18.10.2 Issues and Challenges

18.11 Off-Tastes Associated With Using Oilseed Proteins

18.12 Concluding Remarks

References

Websites and electronic documents: Accessed during January 1–September 1, 2015

19 Mycoprotein: A Healthy New Protein With a Low Environmental Impact

19.1 Origins and Discovery of Mycoprotein

19.2 Food Safety and the Regulatory Framework

19.3 Cultivation and Processing of Mycoprotein

19.3.1 Fungal Fermentation Technology

19.3.1.1 Air Lift Fermentation

19.3.2 Mycoprotein and the Creation of Meat-Like Texture

19.3.2.1 Hypotheses on Texture Creation

19.3.2.2 Hyphal Morphology

19.3.2.3 Interaction Between Hyphae

19.3.2.4 Orientation and Dispersion of the Hyphae

19.3.2.5 Hyphal Pressure

19.3.2.6 Phase Volume

19.3.3 Process Variables That Impact Quality

19.3.3.1 Mixing

19.3.3.2 Fiber Alignment

19.3.3.3 Thermal Gel Creation

19.3.3.4 Freezing and Frozen Storage

19.3.4 Creation of Granular Comminute Texture

19.3.5 Fat Mimetics

19.4 Nutritional Characteristics of Mycoprotein

19.4.1 Nutritional Properties

19.4.1.1 Protein

19.4.1.2 Fat

19.4.1.3 Fiber

19.4.1.4 Minerals

19.4.1.5 Vitamins

19.4.2 Nutrition Research

19.4.2.1 Effects on Total Cholesterol, LDL Cholesterol, and High-Density Lipoprotein Cholesterol

19.4.2.2 Effects on Satiety

19.4.2.3 Effects on the Glycemic Response

19.5 Mycoprotein and Environmental Impact

19.5.1 Environmental Impact

19.5.1.1 Product Carbon Footprint

19.5.1.1.1 Methodology

19.5.1.1.2 Results and Key Comparisons

Beef

Chicken

19.5.1.2 Water Footprint

19.5.1.3 Land Use

19.5.2 How Low Can We Go?

19.5.2.1 Cradle to Cradle Approach

References

20 Heterotrophic Microalgae: A Scalable and Sustainable Protein Source

20.1 Introduction

20.2 Chlorella Classification

20.3 Production

20.4 Sustainability Profile

20.4.1 Case Study: TerraVia Inc.

20.4.2 A Low Environmental Impact

20.4.2.1 GHG Emissions

20.4.2.2 Water Consumption

20.4.2.3 Land Efficiency

20.4.3 Climate Change Adaptation and Resilience

20.5 Nutritional Value and Safety

20.5.1 Nutritional Value

20.5.2 Safety

20.6 Properties and Applications of Whole Algae Protein

20.7 Consumer Acceptance

20.8 Future Developments

20.9 Conclusion

References

21 Edible Insects: A Neglected and Promising Food Source

21.1 Introduction

21.2 Ethno-Entomology

21.3 Environment

21.4 Farming Insects

21.5 Nutrition

21.5.1 Protein Content and Amino Acids

21.5.2 Fats and Fatty Acids

21.5.3 Chitin

21.5.4 Minerals

21.5.5 Vitamins

21.6 Consumer Attitudes

21.7 Food Safety

21.8 Processing and Marketing

21.9 Legislation

21.10 The Way Forward

References

III. Consumers and Sustainability

22 Meat Reduction and Plant-Based Food: Replacement of Meat: Nutritional, Health, and Social Aspects

22.1 Transition Towards Plant-Based Protein Supplementations

22.2 Plant Protein Sources: Nutritional Adequacy Aspects

22.3 Plant-Based Protein Sources: Health and Wellbeing Aspects

22.3.1 Systemic and Gut Health Impacts

22.3.2 Satiety and Weight Management

22.4 Meat Replacement: Social Aspects

22.4.1 The Complexity of Food Choice

22.4.2 Changing the Diet of a Nation

22.4.3 Decreasing Meat Consumption

22.5 Overall Concluding Remarks

References

23 Flavors, Taste Preferences, and the Consumer: Taste Modulation and Influencing Change in Dietary Patterns for a Sustaina...

23.1 Consumers: Dietary and Purchase Habits

23.2 Flavor and Taste

23.2.1 Physiology of Taste

23.2.1.1 Bitter Taste

23.2.1.2 Astringency

23.3 Why We Eat What We Eat: Taste Preferences and Influences

23.3.1 Genetics and Food Choices

23.3.2 Our Upbringing and Cultural Influence on Food Choices

23.3.3 Affording a Healthy Diet

23.3.4 Ice Cream, Broccoli, or Nuts?

23.4 Sustainable Protein Sources in Foods and their Challenges

23.4.1 Off-Tastes Associated With Plant Proteins

23.4.2 Role of Flavors in Modulating Off-Notes in Protein-Based Products

23.4.2.1 Bitter Taste Modulation

23.4.2.2 Astringency Modulation

23.4.3 Binding of Flavors by Proteins

23.5 Introduction of New Foods and Changing Consumer Habits

23.6 Conclusions

Disclaimer

References

24 Food Security and Policy

24.1 Introduction

24.2 Livestock: Facts and Trends

24.3 Rethinking Food Security

24.4 Growing Homogeneity in Global Food Supplies

24.5 Sociological Pathways for More Sustainable Protein Options

24.6 Conclusion

References

25 Feeding the Globe Nutritious Food in 2050: Obligations and Ethical Choices

25.1 Closing Commentary

25.2 Sustainable Protein Sources

25.2.1 Current State of Protein Production

25.2.2 Change in Consumption Patterns, Especially Meat and the Western Diet

25.2.3 Are We Consuming Too Much Protein?

25.2.4 Diet Change, Consumers, and Policies

25.2.5 Challenges With Diet Change

25.3 Environmentally Friendly Food Options

25.3.1 Meat Alternates

25.3.2 Newer Sources of Protein

25.4 Relevance of Big Food Manufacturers

25.5 Production of More Food From the Same Land (and Alternate Farming Methods)

25.5.1 Agriculture and Climate Change: Crop Adaptation

25.5.2 Are GMO’s Necessary to Feed the World?

25.6 Reduction in Food Waste

25.7 Using Microbiomes to Our Advantage

25.8 Sustainable Future Populations

25.9 Moral Obligations and Questions People Need to Debate

Disclaimer

References

Index

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