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氯化锂—硅胶吸附制冷机的实验及理论研究

摘要第4-5页
ABSTRACT第5-6页
LIST OF SYMBOLS第13-17页
CHAPTER 1: INTRODUCTION第17-35页
    1.1 Background and significance of study第17-20页
        1.1.1 Need for sustainable cooling technology第17-18页
        1.1.2 Sorption refrigeration as a sustainable green energy technology第18-19页
        1.1.3 Sorption phenomena第19页
        1.1.4 Sorption refrigeration cycle第19-20页
    1.2 Literature review of adsorption refrigeration technology第20-33页
        1.2.1 Historical development of adsorption technology第20-21页
        1.2.2 Previous studies on adsorption cooling第21-23页
        1.2.3 Adsorption refrigeration cycles第23-29页
            1.2.3.1 Basic one bed adsorption refrigeration cycle第24-25页
            1.2.3.2 Simple two-bed adsorption refrigeration cycle第25-27页
            1.2.3.3 Integrated adsorption refrigeration cycle第27页
            1.2.3.4 Three bed adsorption refrigeration cycle第27-29页
            1.2.3.5 Multi-stages adsorption refrigeration cycle第29页
        1.2.4 Adsorption process第29-32页
            1.2.4.1 Physical adsorbent materials第30-31页
            1.2.4.2 Chemical adsorbent materials第31页
            1.2.4.3 Composites adsorbent materials第31-32页
        1.2.5 Refrigerants第32-33页
    1.3 Aims and objectives第33页
    1.4 Thesis outline第33-35页
CHAPTER 2: ANALYSIS OF COMPOSITE ADSORBENT MATERIALS第35-45页
    2.1 Brief introduction of adsorbent materials desired properties第35-37页
    2.2 Characterizing adsorbent materials第37-38页
        2.2.1 Surface area第37-38页
        2.2.2 Surface Polarity第38页
    2.3 Enhancement strategies of pure silica gel-Water adsorbents for adsorption cooling systems第38-39页
    2.4 Composite adsorbent of silica gel impregnated with lithium chloride第39-40页
    2.5 Preparation of test samples第40-42页
    2.6 Properties of silica gel impregnated with lithium chloride第42-45页
CHAPTER 3: EXPERIMENTAL SYSTEM DESCRIPTION第45-50页
    3.1 Experimental set-up第45页
    3.2 Chiller description第45-48页
    3.3 Operation mechanism第48-50页
        3.3.1 Heating/cooling time第48-49页
        3.3.2 Mass recovery process第49页
        3.3.3 Heat recovery process第49-50页
CHAPTER 4: THEORETICAL INVESTIGATION OF A COMPOSITE SILICA GEL/LITHIUM CHOLRIDE ADSORPTION REFRIGERATION SYSTEM第50-57页
    4.1 Mathematical model第50-51页
    4.2 Adsorption isotherms第51-52页
    4.3 Adsorption bed model第52-55页
    4.4 System performance equations第55-57页
CHAPTER 5: EXPERIMENTAL INVESTIGATION OF THE EFFECTS OF OPERATING CONDITIONS COMPOSITE SILICA GEL/LITHIUM CHLORIDE ADSORPTION REFRIGERATION SYSTEM第57-76页
    5.1 Introduction第57-58页
    5.2 Temperature profiles of the working fluids第58-60页
        5.2.1 Inlet and outlet hot water temperatures第58-59页
        5.2.2 Inlet and outlet cooling water temperatures第59-60页
        5.2.3 Inlet and outlet chilled water temperatures第60页
    5.3 Effect of cycle duration on operation performance第60-69页
        5.3.1 Heating/cooling time第60-62页
        5.3.2 Mass recovery duration第62页
        5.3.3 Heat recovery duration第62-68页
            5.3.3.1 Temperature profile characteristics with different heat recovery durations第62-65页
            5.3.3.2 Inlet outlet temperature difference characteristics第65-67页
            5.3.3.3 Performance characteristics with different heat recovery durations第67-68页
        5.3.4 Adsorption/desorption duration第68-69页
    5.4 Effect of hot water inlet temperature on operation performance第69-70页
    5.5 Effect of cooling water inlet temperature on operation performance第70-71页
    5.6 Effect of chilled water inlet temperature on operation performance第71-72页
    5.7 Effect of mass flow rate of hot water inlet on operation performance第72-73页
    5.8 Comparison of performance with chillers employing pure silica gel water第73-76页
CHAPTER 6: FURTHER SCOPE OF RESEARCH AND CONCLUSIONS第76-79页
    6.1 PRESENT STATUS OF ADSORPTION SYSTEM AND FURTHER SCOPE OF RESEARCH第76-77页
    6.2 CONCLUSIONS第77-79页
REFERENCES第79-90页
APPENDICES第90-98页
ACKNOWLEDGEMENTS第98-100页
RESEARCH PUBLICATIONS第100-103页

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