液體介質節能窗技術與應用（簡體書）

本書的主要內容為一種新型的圍護結構節能技術，液流窗的介紹及其熱性能研究成果。具體包括7個章節內容。分別涉及研究背景及節能窗體技術的發展；該節能液流窗的熱性能實驗研究；針對其結構和設計參數開展的優化研究；考慮民用和公共建築等不同用戶特性而開展的應用優化研究；基於氣候多樣性而開展的氣候適應性的應用優化研究；為了進一步促進該技術的推廣並證明其適用性，開展生命週期分析，並從經濟、能源和環境影響三個方面探討其經濟社會價值和效益；本書最後一章將對前述章節內容進行總結並給出該技術未來的研究和發展方向。本書可供相關專業科研人員閱讀，也可作為高等和高職院校教輔參考書。

呂原麗，西華大學副教授。近三年成果A.承擔和參與項目：主持項目(1)真空水流窗的熱特性及其節能研究，國家自然科學基金青年基金，2019-2021，在研(2)基於建築動態負荷特性的真空水流窗應用節能優化研究,2019年四川省留學人員科技活動項目，2020-2022，在研(3)高級液流窗強化熱利用及其優化，內蒙古自治區教育廳高校項目，2017-2019，在研參與項目(1)基於新型直接接觸式儲熱的熔融PCM射流破碎機理研究，國家自然科學基金青年基金，2018-2020，在研B.所獲榮譽西華大學青年學者C.發表論文：[1]Y.L.Lyu,W.J.Liu,H.Su,X.Wu.(2019)Numericalanalysisontheadvantagesofevacuatedgapinsulationofvacuum-waterflowwindowinbuildingenergysavingundervariousclimates.Energy,175,353-364.(SCI,1區)[2]Y.L.Lyu,X.Wu,C.Y.Li,H.Su,L.J.He.(2019)Numericalanalysisontheeffectivenessofwarmwatersupplyinwaterflowwindowforroomheating.Solarenergy,177,347-354.(SCI,2區)[3]Y.L.Lyu,W.J.Liu,T.T.Chow,H.Su,X.J.Qi.(2019)Pipe-workoptimizationofwaterflowwindow.Renewableenergy,139,136-146.(SCI,2區)[4]Y.L.Lyu,T.T.Chow*,J.L.Wang.(2018)Numericalpredictionofthermalperformanceofliquid-flowwindowindifferentclimateswithanti-freeze.Energy,157,412-423.(SCI,1區)[5].T.T.Chow,Y.L.Lyu*(2017)Effectofdesignconfigurationsonwaterflowwindowperformance.Solarenergy,155,354-362.(SCI,2區)[6]T.T.Chow,Y.L.Lyu*.(2017)NumericalanalysisontheadvantageofusingPCMheatexchangerinliquid-flowwindow.Appliedthermalengineering,125,1218-1227.(SCI,2區)[7]Y.L.Lyu*,C.Liu,H.Su.(2019)Thermalperformancepredictionofwatermediumwindow:acasestudyinhotsummercoldwinterclimate.ABS2019,Bern,Switzerland,28-29O

1緒論1.1研究背景1.2單層鍍膜玻璃技術1.3多層複合窗體技術1.4動態窗體技術研究進展2節能窗熱性能的實驗研究2.1研究內容2.2研究方法2.3節能窗熱性能分析3窗體的結構設計參數優化3.1模型建立3.2模擬研究3.3結構設計優化結果分析4基於用戶需求特性的應用節能優化4.1研究內容4.2研究方法4.3不同用戶特性下的應用優化結果分析5基於氣候條件的應用節能優化5.1研究內容5.2研究方法5.3不同氣候條件下的應用優化結果6生命週期分析6.1研究內容6.2研究方法6.3基於典型氣候環境的生命週期分析結果7結論和展望1Introduction111SingleGlazing312DoubleGlazingSystem513MultiglazingSystem814LiquidFlowWindow102ExperimentalInvestigationofThermalPerformanceofDoubleGlazingLiquidFlowWindow1321ResearchMethod14211ExperimentSetUp14212MeasuringInstrument1522ExperimentsandResultsAnalysis17221WaterFlowWindowPerformance17222Antifreezing
LiquidFlowWindowPerformance23223PerformanceComparisonofWaterandAntifreezingLiquidFlowWindow3023Summary313SchematicOptimizationofLiquidFlowWindow3231ResearchMethodology33311MathematicalModelsDevelopment33312ModelValidation4132PerformanceEvaluationwiththeVariationofSchematicParameters45321ThermalPerformanceatDifferentCavitySpaces45
322ThermalPerformanceComparisonwithVariousPipeworkDesigns50323ThermalPerformanceEvaluationwithVariationofWindowDimension5733Summary614PerformanceEvaluationwithPCMThermalStorage:forResidentialandOfficeBuildingsHotWaterDemandPatterns6341NumericalModelsDevelopment65411MathematicalModelsforCase166412MathematicalModelsforCase26742ModelValidation6843NumericalStudyonThermalPerformanceofLiquidFlowWindowwithPCMHeatExchanger71431ThermalPerformance
forResidentialBuildingApplication72432ThermalPerformanceforOfficeBuildingApplication79433ThermalPerformancewithVariationofPCMLayerThickness8244Summary835LiquidFlowWindowPerformanceunderDifferentClimateApplications8551ResearchMethodology86511ModelValidationforAntifreezingLiquidFlowWindow86512NumericalStudiesinDifferentClimates8952ThermalPerformanceAnalysisinVariousClimate
Applications91521TheEffectofLiquidConcentrationsonthermalPerformance91522ThermalPerformanceComparisonunderDifferentClimates92523ThermalPerformanceImprovementinColdandExtremelyColdClimates9653Summary986LifeCycleAssessmentofLiquidFlowWindow10061TheMethodofAnalysis10262LifelongInvestment,EnergyInputandCarbonEmissionofLiquidFlowWindow104621Investment,EnergyInputandCarbonEmissionforWindowMaterials104622Cost,EnergyConsumption
andCarbonEmissionfromConstructiontoDisposal10963BuildingEnergySimulationinESPr113631ValidationStudy113632BuildingEnergySimulation115633EnergySavingPerformanceofLiquidFlowWindow12264PaybackPeriodAnalysis12565Summary1287SummaryandMajorConclusions13071ResearchWorkCompleted13072FindingsandConclusions132
References136