Muutke küpsiste eelistusi

Future Foods: How Modern Science Is Transforming the Way We Eat 2019 ed. [Pehme köide]

  • Formaat: Paperback / softback, 395 pages, kõrgus x laius: 235x155 mm, kaal: 861 g, 88 Illustrations, color; 5 Illustrations, black and white; XXI, 395 p. 93 illus., 88 illus. in color., 1 Paperback / softback
  • Ilmumisaeg: 08-May-2019
  • Kirjastus: Springer Nature Switzerland AG
  • ISBN-10: 3030129942
  • ISBN-13: 9783030129941
Teised raamatud teemal:
  • Pehme köide
  • Hind: 34,80 €*
  • * hind on lõplik, st. muud allahindlused enam ei rakendu
  • Tavahind: 40,94 €
  • Säästad 15%
  • Raamatu kohalejõudmiseks kirjastusest kulub orienteeruvalt 2-4 nädalat
  • Kogus:
  • Lisa ostukorvi
  • Tasuta tarne
  • Tellimisaeg 2-4 nädalat
  • Lisa soovinimekirja
  • Formaat: Paperback / softback, 395 pages, kõrgus x laius: 235x155 mm, kaal: 861 g, 88 Illustrations, color; 5 Illustrations, black and white; XXI, 395 p. 93 illus., 88 illus. in color., 1 Paperback / softback
  • Ilmumisaeg: 08-May-2019
  • Kirjastus: Springer Nature Switzerland AG
  • ISBN-10: 3030129942
  • ISBN-13: 9783030129941
Teised raamatud teemal:

We are in the midst of an unprecedented era of rapid scientific and technological advances that are transforming the way our foods are produced and consumed.  Food architecture is being used to construct healthier, tastier, and more sustainable foods.  Functional foods are being created to combat chronic diseases such as obesity, cancer, diabetes, stroke, and heart disease.  These foods are fortified with nutraceuticals or probiotics to improve our mood, performance, and health.  The behavior of foods inside our guts is being controlled to increase their healthiness.  Precision nutrition is being used to tailor diets to our unique genetic profiles, microbiomes, and metabolisms.  Gene editingnanotechnology, and artificial intelligence are being used to address modern food challenges such as feeding the growing global population, reducing greenhouse gas emissions, reducing waste, and improving sustainability.  However, the application of these technologies is facing a backlash from consumers concerned about the potential risks posed to human and environmental health.  

Some of the questions addressed in this book are:  What is food architecture   How does sound and color impact taste?  Will we all have 3D food printers in all our homes?  Should nanotechnology and gene editing be used to enhance our foods   Are these new technologies safe?  Would you eat bug-foods if it led to a more sustainable food supply   Should vegetarians eat themselves   Can nutraceuticals and probiotics stop cancer   What is the molecular basis of a tasty sustainable burger   

David Julian McClements is a Distinguished Professor in food science who has used physics, chemistry, and biology to improve the quality, safety, and healthiness of foods for over 30 years.  He has published over 900 scientific articles and 10 books in this area and is currently the most highly cited food scientist in the world.  He has won numerous scientific awards for his work.  The aim of this book is to highlight the many exciting advances being made in the science of foods, and to show their application for solving important problems related to the modern food supply, such as tackling chronic diseases, feeding a global population, reducing food waste, and creating healthier and tastier foods. 


1 The Science of Foods: Designing Our Edible Future 1(26)
A Local Food Challenge: Breakfast in New England
1(4)
Global Food Challenges: Feeding the World
5(11)
Meeting Basic Nutritional Needs
5(4)
Managing Our Edible Environment: Sustainability
9(2)
Reducing Food Waste
11(1)
Keeping Foods Safe
12(1)
Ensuring a Healthy Population
13(2)
Nurturing Food Culture: Community, Pleasure, and Status
15(1)
The Importance of Being Scientific
16(1)
The Food Scientists
16(9)
The Food Producers
17(1)
The Food Designers
17(4)
The Food Constructors
21(1)
The Food Detectives
22(2)
The Food Gastrologists
24(1)
Future Food Science
25(2)
2 Food Architecture: Building Better Foods 27(34)
Astronauts, Gastronauts, and Mathematicians
27(1)
Food Architects, Designers, and Structural Engineers
28(3)
Historical Movements in Food Architecture and Design
31(3)
Early Days
31(1)
The Middle Ages
32(1)
Modern Times
33(1)
Molecular Gastronomy
34(1)
Edible Bricks and Mortar
35(14)
Water: The Forgotten Ingredient
36(3)
Proteins: Body Builders
39(3)
Carbohydrates: Thick and Sweet
42(2)
Fats: Smooth and Creamy
44(2)
Colors, Flavors, and Additives: Special Effects
46(3)
Structural Design: Putting It All Together
49(4)
Food Cement
49(3)
Prefabricated Structures
52(1)
Computer Assisted Design
53(1)
Food Design with Honey and Bunny
53(1)
Edible Architecture: Chocolate
54(3)
The Chocolate Engineers
55(2)
The Chocolate Architects
57(1)
3D Food Printing
57(3)
The Future of Food Architecture
60(1)
3 The Science of Deliciousness 61(38)
It Has to Taste Good!
61(1)
Sampling the World: Hard-Wired Deliciousness
61(1)
First Impressions: Does It Look Good?
62(11)
The Physics and Chemistry of Food Beauty
64(3)
Great Expectations: The Sociopsychology of Food Aesthetics
67(5)
Dining in the Virtual World
72(1)
Food Flavor: The Chemical Bouquet
73(10)
The Lexicon of Flavor
73(1)
Taste: A Sea of Flavors
74(2)
Aroma: A Mist of Flavors
76(1)
The Matrix: What Is the Flavor Reality?
77(2)
Willy Wonka and the Flavor Release Factory
79(1)
Personalized Tasting
80(2)
Flavor Perception and Health
82(1)
Trigeminal: Feel the Burn
83(2)
Oral Processing and Mouthfeel: The Sound and the Puree
85(3)
Crumbly Science
86(2)
Smooth Operator: The Science of Creaminess
88(1)
The Role of Our Brains in Eating
88(2)
Cross-Modal Correspondence: It All Makes Sense
88(1)
The Importance of Context: Exterior Decorating
89(1)
Quantifying Desire
90(7)
Human Taste Testers: Sensory Science
91(1)
Robot Taste Testers
92(5)
The Future of Deliciousness
97(2)
4 Food Gastrology: A Voyage Through Our Guts 99(24)
Our Guts: The Gateway to Our Health
99(1)
Gut Evolution
99(2)
The Rise of the Food Gastrologists
101(1)
Ingestion: Starting the Journey
101(1)
Dissolution and Assimilation: Building & Maintaining Our Bodies
102(9)
The Mouth: Spit and Tooth Machine
102(3)
The Stomach: Acid Bag
105(3)
Small Intestine: Super Absorber
108(2)
Colon: Home of Our Extended Family
110(1)
Distribution & Metabolism: Keeping the Whole Thing Running
111(1)
Excretion: Peeing, Pooping, and Farting
112(4)
Poop Science
113(1)
Pee Science
114(1)
Fart Science
115(1)
The Food-Brain-Gut Axis
116(2)
Food and Mood
116(1)
The Brain and Eating Behavior
117(1)
Following the Journey of Foods Through Our Bodies
118(3)
Humans: The Real Thing
119(1)
Animals: The Next Best Thing
119(1)
Simulated Guts: The Most Convenient Thing
120(1)
The Future of Food Gastrology
121(2)
5 Are You What You Eat? 123(44)
What Should I Eat?
123(1)
Total Calorie Reduction
124(9)
Fat Mimetics and Anal Leakage
125(1)
Fat Simulators: Impersonating Fats
126(4)
Sugar Replacers: Natural and Artificial
130(3)
Biomimetic Starch Granules
133(1)
Optimizing Macronutrient Composition
133(18)
Are All Calories Created Equal?
134(1)
Carbohydrates
135(7)
Fats
142(6)
Proteins
148(3)
The Role of Food Digestibility
151(2)
The Glycemic Index
151(2)
Modulating Appetite and Satiety
153(3)
Salt Reduction
156(1)
What Should I Eat Then?
157(2)
The Problem with Dieting: The Defended Weight Range
159(1)
When Should I Eat?
160(1)
Creating a Healthier Food Environment
160(4)
The Role of Government
161(2)
The Role of Industry
163(1)
The Role of the Consumer
163(1)
Future Diets
164(3)
6 Nutraceuticals: Superfoods or Superfads? 167(36)
What Are Nutraceuticals?
167(2)
Nutraceuticals Versus Nutrients
169(1)
Nutraceuticals Versus Pharmaceuticals
169(1)
Ancient Nutraceuticals
170(2)
Can Food Components Impact Health and Behavior? The Strange Case of the Cannibal Hamsters
172(1)
Establishing the Efficacy of Nutraceuticals
173(3)
Observational Studies: Epidemiology
173(1)
Intervention Studies: Randomized Controlled Trials
174(1)
Mechanistic Studies: Establishing How It Works
175(1)
Some Common Nutraceuticals
176(8)
Omega-3s
177(1)
Conjugated Linoleic Acid
178(1)
Phytosterols
179(1)
Carotenoids
180(1)
Curcumin
181(1)
Resveratrol
182(1)
Polyphenols
182(2)
Superfoods
184(3)
Tea
184(1)
Coffee
185(1)
Chocolate
185(1)
Nuts
186(1)
Berries
186(1)
How Do Nutraceuticals Affect Our Health?
187(2)
Reductionism and Systems Biology
187(1)
Mechanisms of Action: Cancer
188(1)
But Do Nutraceuticals Actually Work?
189(4)
Nutraceutical Testing
190(1)
Challenges to Testing Nutraceutical Efficacy
191(2)
Incorporating Nutraceuticals into Our Diet
193(4)
Overcoming Evolution's Barriers
194(1)
Bioavailability
195(2)
Designing Foods to Increase Nutraceutical Bioavailability
197(3)
Natural Versus Processed foods
197(1)
Food Matrix Design
198(1)
Delivery Systems
199(1)
Excipient Foods
200(1)
The Future of Nutraceuticals
200(3)
7 Feeding the World Inside Us: Our Gut Microbiomes, Diet, and Health 203(30)
The World Inside Us
203(2)
What Is the Gut Microbiome?
205(2)
Microbes and Their Functions
207(2)
Characterizing the Human Microbiome
209(6)
Traditional Methods
210(2)
Gene Sequencing
212(1)
Omics Technologies
213(1)
Bioinformatics
214(1)
Fecal Transplants and Germ-free Mice
214(1)
The Life Story of Our Microbiomes
215(2)
Do We Know What a Good Microbiome Looks Like?
217(2)
The Microbiome and the Food-Gut-Brain Axis
219(1)
How Does the Gut Microbiome Impact Our Health?
219(6)
Strengthening Our Immune Systems
220(1)
Inflammatory Bowel Disease and Irritable Bowel Syndrome
221(1)
Obesity
221(1)
Diabetes
222(1)
Heart Disease
223(1)
Cancer
224(1)
Mental Health
225(1)
Towards a Healthier Microbiome
225(3)
Optimizing Our Diets
226(1)
Taking Probiotics and Prebiotics
226(2)
Avoiding Certain Food Additives
228(1)
Microbial Gastronauts: From Mouth to Colons
228(2)
But Will They Stay When They Get There?
230(1)
The Future of the Gut Microbiome
230(3)
8 Personalized Nutrition: Customizing Your Diet for Better Health 233(28)
One Size Does Not Fit All
233(2)
Systems Biology: Disentangling Complexity
235(1)
Biometric Data: Decoding Who We Are
236(11)
Genome: The Instructions
237(3)
Transcriptome: Reading the Instructions
240(2)
Proteome: Molecular Machines
242(1)
Metabolome: Molecular Products
243(2)
Microbiome: Extended Family
245(1)
Phenome: Personal Characteristics
245(1)
Foodome: The Molecules on Our Plates
246(1)
Big Data Analysis
246(1)
Biometric Sensors: Getting the Measure of Ourselves
247(2)
Artificial Intelligence and Machine Learning: Pattern Recognition
249(1)
Diet and Disease
249(1)
Omic Forensics: The Power of Biometry
250(6)
Gene Sequencing: Reading DNA
251(1)
Chromatography: Divide and Discriminate
252(2)
Mass Spectrometry: Smash and Graph
254(1)
Nuclear Magnetic Resonance: Spinning Tops
255(1)
Challenges to Personalized Nutrition
256(3)
We Are All Different
256(1)
Our Diets Are All Different
257(1)
Food Matrix Effects
258(1)
The Future of Personalized Nutrition
259(2)
9 Food Biotechnology: Sculpting Genes with Genetic Engineering 261(26)
Rise of the Gene Editing Nano-Bots
261(2)
Sculpting the Gene
263(11)
A Brave New World
263(2)
Black-Box Genetic Engineering: The Early Days
265(2)
What Is Modern Genetic Engineering?
267(2)
The Gene Editing Revolution
269(2)
A Brief History of CRISPR
271(3)
Can We Genetically Engineer a Healthier, More Sustainable Food Supply?
274(8)
Biofortification: Tackling Micronutrient Deficiencies
274(1)
Optimizing Nutritional Profiles
275(1)
Eliminating Potentially Harmful Substances from Foods
276(1)
Improving Food Sustainability
276(3)
Improving Food Quality
279(1)
Improving Livestock
280(1)
Optimizing Traditional Selective Breeding
281(1)
Creation of Laboratory Animals
282(1)
Is Genetic Engineering Safe?
282(2)
Is Genetic Engineering Ethical?
284(1)
Should Genetically Modified Foods Be Labeled?
285(1)
The Future of Genetic Engineering
286(1)
10 Food Nanotechnology: Harnessing the Power of the Miniature World Inside Our Foods 287(36)
Honey, I Shrank the Food
287(1)
What Is Nanotechnology?
288(1)
A Brief History of Nanotechnology
288(3)
The Birth of Food Nanotechnology
291(1)
Food Nanomaterials
292(8)
Inorganic Nanomaterials
294(1)
Organic Nanomaterials
295(1)
How Do We Make Nanoparticles?
296(1)
How Do We See and Measure Nanomaterials?
297(1)
Why Do Nanomaterials Have Unique Properties?
298(2)
Nanotechnology in Agriculture
300(7)
Nano-Enabled Water Treatment
301(1)
Protecting Crops with Nano-Pesticides
301(2)
Feeding Plants with Nano-Fertilizers
303(2)
Precision Agriculture: Nano-Enabled Monitoring and Control
305(1)
Sustainable Nanomaterials
306(1)
Nanotechnology in Food Production
307(11)
Nano-Tooled Bug Blasters: Improving Safety and Reducing Waste
307(2)
Into the Matrix: Improving Ingredient Compatibility
309(1)
Enhancing Food Quality from the Inside Out
309(3)
Nano-Structuring Foods to Control Their Digestion
312(1)
Boosting Bioactivity Through Nanotech
312(2)
Being at the Right Place at the Right Time: Controlled and Targeted Delivery
314(1)
Special Effects
314(1)
Nano-Enabled Sensing
315(1)
Next-Generation Food Packaging
316(2)
Nanotoxicology: The Potential Perils of Nanotech
318(1)
Understanding and Managing Risks
319(1)
The Future of Food Nanotechnology
320(3)
11 Towards a More Ethical and Sustainable Edible Future: One Burger at a Time 323(40)
Feeding the World
323(2)
Hamburgers: The Real Thing
325(11)
Patty Versus Hamburger: The Legal Case
326(1)
Converting Cows into Burgers
326(2)
Deconstructing the Burger
328(2)
Flipping the Burger
330(1)
Patty Science
331(2)
Lexicon of Burger Deliciousness
333(1)
Halo Burgers: Beefing Up Hamburger Nutrition
334(1)
The Omnivore's Dilemma: Problems with Meat Eating
334(2)
Clean Burgers: Cultured Meat
336(16)
The Cultured Meat Advantage
336(1)
Factory Grown Meat: The Science of Tissue Engineering
337(2)
A Brief History of Cultured Meat
339(1)
Celebrity Burgers
340(1)
Should Vegetarians Eat Themselves?
341(1)
Cultured Meat as Art
341(1)
Disco Burgers
342(1)
Bug Burgers: Insect Meat
342(1)
Traditional Insect Consumption
342(1)
Insect Consumption in Developed Countries: Learning to Love the Bug
343(2)
The Science of the Bug Burger
345(1)
But Would You Eat It? The Yuck Factor
346(4)
Bug Farming: The Commercial Production of Edible Insects
350(1)
Are There Health Benefits from Consuming Bugs?
350(1)
The Challenges of Bug Farming
351(1)
Bacteria Burgers: Microbial Meat
352(2)
Bean Burgers: Plant-Based Meat Alternatives
354(5)
Assembling a Meat Simulacrum
355(3)
Flexitarian Burgers: The Omnivore's Solution
358(1)
Is a Plant-Based Diet Better for Your Health?
358(1)
Is There a Future for Farm Animals?
359(1)
The Future of a Sustainable Food Supply
360(3)
12 The Future of Foods? 363(4)
A Vision of the Future of Food Production
364(3)
Permissions 367(4)
Bibliography 371
David Julian McClements was born in the north of England but has lived in California, Ireland, France, and Massachusetts since then.  He is currently a Distinguished Professor in the Department of Food Science at the University of Massachusetts where he specializes in the areas of food design and nanotechnology. He has written numerous books, published over 900 scientific articles, been granted a number of patents, and presented his work at invited talks around the world.  He is currently the most highly cited author in the food and agricultural sciences.  He has received awards from numerous scientific organizations in recognition of his achievements and is a fellow of the Royal Society of Chemistry, American Chemical Society, and Institute of Food Technologists. His research has been funded by the United States Department of Agriculture, National Science Foundation, NASA, and the food industry.