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基于葵花籽蛋白水解物美拉德反应产物制备的风味增强剂及其感官特性和抗氧化活性

Dedication第4-10页
List of Abbreviations第10-13页
摘要第13-16页
Abstract第16-19页
Chapter 1. Introduction and Review of Relevant Literature第28-54页
    1.1. Sunflower第28-31页
        1.1.1. Food applications of sunflower seed第28-29页
        1.1.2. By-products from processing of sunflower oil第29页
        1.1.3. Composition of Sunflower meal (SFM)第29-30页
        1.1.4. Sunflower protein hydrolysates第30-31页
    1.2. Maillard reaction第31-42页
        1.2.1. Impact of Maillard on food quality第32页
        1.2.2. Formation of flavour compounds in the Maillard reaction第32-34页
        1.2.3. Classification of flavour compounds from Maillard reaction第34-35页
        1.2.4. Factors influencing the flavour formation during Maillard reaction第35-39页
        1.2.5. Analysis of flavours第39-40页
        1.2.6. Application of Maillard reaction products in food industries第40-42页
    1.3. Statement of the problem and justification of research第42-43页
    1.4. Objectives of the study第43页
        1.4.1. Main objective of the study第43页
        1.4.2. Specific objectives of the study第43页
    1.5. References第43-54页
Chapter 2. Optimization of Processing Parameters for Enzymatic Hydrolysis of SunflowerProteins第54-65页
    2.1. Introduction第54-55页
    2.2. Material and Methods第55-57页
        2.2.1. Plant material第55页
        2.2.2. Chemicals第55页
        2.2.3. Preparation of sunflower protein isolate第55页
        2.2.4. Physico-chemical analysis methods第55-56页
        2.2.5. Total and free amino acid determination第56-57页
        2.2.6. Estimation of molecular weight distribution第57页
        2.2.7. Statistical analysis第57页
    2.3. Results and Discussions第57-62页
        2.3.1. Proximate analysis第57-58页
        2.3.2. Effect of alcalase concentration on the degree of hydrolysis第58页
        2.3.3. Effect of hydrolysis time and substrates concentration on the degree of hydrolysis第58-59页
        2.3.4. Effect of alcalase enzyme hydrolysis and substrates concentration of molecular weightdistribution第59页
        2.3.5. Effect of alcalase hydrolysis and substrates concentration on total amino acid content ofsunflower protein hydrolysates第59-60页
        2.3.6. Effect of alcalase hydrolysis and substrates concentration on total amino acid content ofsunflower protein hydrolysates第60页
        2.3.7. Effect of sequential enzymatic hydrolysis and substrates concentration on DH and molecularweight distribution第60-62页
    2.4. Conclusion第62-63页
    2.5. References第63-65页
Chapter 3. Sensory Characteristics of Maillard Reaction Products Obtained from SunflowerProtein Hydrolysates and Different Sugar Type第65-91页
    3.1. Introduction第65-66页
    3.2. MATERIALS and Methods第66-70页
        3.2.1. Plant material第66页
        3.2.2. Chemicals第66-67页
        3.2.3. Preparation of sunflower protein isolate第67页
        3.2.4. Preparation of sunflower hydrolysates第67页
        3.2.5. Preparation of Maillard reaction products第67页
        3.2.6. Measurement of p H第67页
        3.2.7. Measurement of browning intensity第67页
        3.2.8. Colour measurement第67-68页
        3.2.9. Headspace solid phase micro-extraction/ gas chromatography/ mass spectrometry (HS-SPME/GC/MS) analysis第68页
        3.2.10. Total and free amino acid determination第68页
        3.2.11. Estimation of molecular weight distribution第68-69页
        3.2.12. Sensory evaluation第69页
        3.2.13. Statistical analysis第69-70页
    3.3. Result and discussions第70-85页
        3.3.1. Effect of sugar types on MRPs p H第70-71页
        3.3.2. Effect of sugar types on MRPs browning intensity and colour development第71页
        3.3.3. Effect of sugar types on Molecular Weight Distribution of MRPs第71-73页
        3.3.4. Effect of sugar types on MRPs free and total amino acid content第73-75页
        3.3.5. Effect of sugar types on volatile compounds formation第75-79页
        3.3.6. Effect of sugar types on MRPs sensory characteristics第79-85页
    3.4. Conclusion第85-86页
    3.5. References第86-91页
Chapter 4 Effect of Substrate Type on Sensory Characteristics and Antioxidant Capacity of Sunflower Maillard Reaction Products第91-120页
    4.1. Introduction第91-92页
    4.2. Materials and Methods第92-95页
        4.2.1. Plant material第92页
        4.2.2. Chemicals第92-93页
        4.2.3. Preparation of sunflower protein isolate第93页
        4.2.4. Preparation of sunflower hydrolysates第93页
        4.2.5. Preparation of sunflower free amino acid第93页
        4.2.6. Preparation of Maillard reaction products第93页
        4.2.7. Measurement of browning intensity第93页
        4.2.8. Colour measurement第93-94页
        4.2.9. Headspace solid phase micro-extraction/ gas chromatography/ mass spectrometry (HS-SPME/GC/MS) analysis第94页
        4.2.10. Total and free amino acid determination第94页
        4.2.11. Estimation of molecular weight distribution第94页
        4.2.12. Determination of DPPH radical-scavenging activity第94页
        4.2.13. Determination of the reducing power第94-95页
        4.2.14. Sensory evaluation第95页
        4.2.15. Statistical analysis第95页
    4.3. Results and Discussions第95-114页
        4.3.1. Browning intensity and colour changes第95-96页
        4.3.2. Change in Molecular Weight Distribution第96-97页
        4.3.3. Change in Amino Acid Content第97-99页
        4.3.4. Sensory analysis第99-101页
        4.3.5. Compare volatile compounds of MRPs第101-108页
        4.3.6. Relationship between Molecular weight, volatile compounds and sensory characteristics第108-113页
        4.3.7. Evaluation of antioxidant activity第113-114页
    4.4. Conclusions第114-115页
    4.5. References第115-120页
Chapter 5. Temperature and Cysteine Addition Effect on Formation of Sunflower Hydrolysate Maillard Reaction Products and Corresponding Influence on Sensory Characteristics Assessedby Partial Least Square Regression第120-152页
    5.1. Introduction第120-122页
    5.2. Materials and Methods第122-125页
        5.2.1. Plant material第122页
        5.2.2. Chemicals第122页
        5.2.3. Preparation of sunflower isolates and hydrolysates第122页
        5.2.4. Preparation of Maillard reaction products第122-123页
        5.2.5. Measurement of p H第123页
        5.2.6. Measurement of browning intensity第123页
        5.2.7. Chlorogenic acid determination第123-124页
        5.2.8. Colour measurement第124页
        5.2.9. Headspace solid phase micro-extraction/ gas chromatography/ mass spectrometry (HS-SPME/GC/MS) analysis第124页
        5.2.10. Total and free amino acid determination第124页
        5.2.11. Estimation of molecular weight distribution第124页
        5.2.12. Determination of DPPH radical-scavenging activity第124页
        5.2.13. Determination of the reducing power第124-125页
        5.2.14. Sensory evaluation第125页
        5.2.15. Statistical analysis第125页
    5.3. Results and Discussions第125-147页
        5.3.1. Change in p H第125-126页
        5.3.2. Chlorogenic acid content第126页
        5.3.3. Effect on browning and lightness intensity of MRPs第126-127页
        5.3.4. Peptide content第127-129页
        5.3.5. Amino acid content第129-130页
        5.3.6. Volatile compound formation第130-132页
        5.3.7. Sensory evaluation第132-133页
        5.3.8. Relationship between molecular weight, free amino acid, flavour compounds and sensorycharacteristics第133-139页
        5.3.9. Effect of temperature and cysteine addition on antioxidant activity第139-147页
    5.4. Conclusions第147页
    5.5. References第147-152页
Chapter 6. Sensory Attributes and Antioxidant Capacity of Maillard Reaction ProductsDerived from Xylose, Cysteine and Sunflower Protein Hydrolysate Model System第152-174页
    6.1. Introduction第152-153页
    6.2. Materials and Methods第153-156页
        6.2.1. Plant material第153页
        6.2.2. Chemicals第153-154页
        6.2.3. Preparation of sunflower isolates and hydrolysates第154页
        6.2.4. Preparation of soybean hydrolysates第154页
        6.2.5. Preparation of Maillard reaction products第154页
        6.2.6. Measurement of p H第154-155页
        6.2.7. Measurement of browning intensity第155页
        6.2.8. Chlorogenic acid determination第155页
        6.2.9. Colour measurement第155页
        6.2.10. Headspace solid phase micro-extraction/ gas chromatography/ mass spectrometry (HS-SPME/GC/MS) analysis第155页
        6.2.11. Total and free amino acid determination第155页
        6.2.12. Estimation of molecular weight distribution第155页
        6.2.13. Determination of DPPH radical-scavenging activity第155页
        6.2.14. Determination of the reducing power第155页
        6.2.15. Sensory evaluation第155页
        6.2.16. Statistical analysis第155-156页
    6.3. Results and discussions第156-167页
        6.3.1. Change in p H第156页
        6.3.2. Change of chlorogenic acid第156页
        6.3.3. Change in MW distribution of MRPs第156-157页
        6.3.4. Changes in colour characteristics of MRPs第157-158页
        6.3.5. Change in amino acid content第158-159页
        6.3.6. Sensory evaluation第159-161页
        6.3.7. Comparison of Volatile compounds of MRPs第161-164页
        6.3.8. Comparison of antioxidant activity第164-167页
    6.4. Conclusion第167-168页
    6.5. References第168-174页
Chapter 7. Contribution of Crosslinking Products to the Flavour Enhancer Processing: The New Concept of Maillard Peptide in Sensory Characteristics of Maillard Reaction Systems第174-193页
    7.1. Introduction第174-175页
    7.2. Materials and Methods第175-178页
        7.2.1. Plant material第175页
        7.2.2. Chemicals第175-176页
        7.2.3. Preparation of Maillard reaction products第176页
        7.2.4. Gel Permeation Chromatography (GPC)第176页
        7.2.5. Hydrolysis of PXC and P-PXC第176页
        7.2.6. Total and free amino acid determination第176页
        7.2.7. Estimation of molecular weight distribution第176-177页
        7.2.8. MALDI-TOF/TOF mass spectrometry第177页
        7.2.9. Comparative taste of MRPs from different peptide第177页
        7.2.10. Comparative Taste Profile Analysis第177页
        7.2.11. Statistical analysis第177-178页
    7.3. Results and discussions第178-190页
        7.3.1. Comparison of MWD of MRPs from different peptides第178页
        7.3.2. Comparison of amino acid content of MRPs from different peptides第178-179页
        7.3.3. Taste characteristics of MRPs from different peptides第179-180页
        7.3.4. Change in MWD and amino acid composition of PXC, P-PXC and their hydrolysates第180-182页
        7.3.5. Comparative sensory characteristics of PXC, P-PXC and their hydrolysates第182-183页
        7.3.6. Compounds identification on MALDI-TOF/TOF spectrometer第183-190页
    7.4. Conclusion第190页
    7.5. References第190-193页
Chapter 8. Antioxidant and Antibacterial Activity of Sunflower Maillard Reaction Productsand Their Application on Stabilization of Fish and Olive Oil Nanoemulsions第193-214页
    8.1. Introduction第193-194页
    8.2. Materials and Methods第194-198页
        8.2.1. Plant material第194页
        8.2.2. Chemicals第194-195页
        8.2.3. Preparation of sunflower protein isolate and hydrolysates第195页
        8.2.4. Preparation of Maillard reaction products第195页
        8.2.5. Preparation of Nanoemulsion第195-196页
        8.2.6. Evaluation of antioxidant activity of MRPs第196页
        8.2.7. Antibacterial activity of sunflower Maillard reaction第196-197页
        8.2.8. Storage stability of fish and olive oil nanoemulsions第197页
        8.2.9. Determination of oil oxidation stability第197-198页
        8.2.10. Nanoemulsion characterisation第198页
        8.2.11. Statistical analysis第198页
    8.3. Results and discussions第198-209页
        8.3.1. Evaluation of sunflower peptides and its MRPs antioxidant activity第198-200页
        8.3.2. Evaluation of antimicrobial activity of sunflower peptides and its MRPs第200-203页
        8.3.3. Characterization of fish and olive oil O/W nanoemulsion第203-206页
        8.3.4. Effect of PXC antioxidants on oxidative stability of fish and olive oil based nanoemulsions第206-209页
    8.4. Conclusion第209页
    8.5. References第209-214页
General Conclusions第214-216页
Key Innovations第216-217页
Recommendations第217-218页
List of Publications第218-219页
Acknowledgement第219-220页
Appendices第220页

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