Anodized type 3的問題，透過圖書和論文來找解法和答案更準確安心。 我們找到下列問答集和整理懶人包

表面工程在增強型高潤濕性介電液體 HFE-7200 的池沸騰中的作用

為了解決Anodized type 3的問題，作者薩武哲 這樣論述：

AbstractiiAcknowledgements iiiTable of ContentsivList of Figures.viiiList of TablesxiNomenclature.xii1. Chapter 1: Background and Introduction 11.1 Boiling Heat Transfer.11.1.1 Pool Boiling Heat Transfer.11.1.2 Pool Boiling Regimes.21.1.3 Critical Heat Flux (CHF)41.1.4 Heat Transfer Coefficient (H

TC) .41.1.5 Pool boiling schemes41.2 Applications51.2.1 Electronics Cooling 51.2.2 Refrigeration and air-conditioning .61.2.3 Reboilers.71.2.4 Desalination71.3 Fundamentals of pool boiling of dielectric liquids.72. Chapter 2: Literature Review 92.1. Pool boiling of dielectric liquids on plain surfa

ces 92.2. Pool boiling of dielectric liquids on engineered surfaces.102.2.1 Additive or coated surfaces 112.2.2 Subtractive or intrinsic surfaces .162.2.3 Compound surfaces 212.3 Objectives and contributions to the field242.3.1 Detailed survey of enhanced surfaces for pool boiling of dielectric liqu

ids 242.3.2 Development of various engineered surfaces for improved boiling.252.3.3 The role of surface engineering for enhanced pool boiling of a highly wettingdielectric liquid, HFE-7200 252.3.4 Design and engineering of robust high performance surfaces .262.3.5 Development of artificial intellige

nce based model to predict the boiling heattransfer of micro and nano scale engineered surfaces262.4 Executive Summary263. Chapter 3: Experimental Setup 303.1 Experimental Apparatus.303.1.1 Test Chamber303.1.2 Test assembly system .323.1.3 Rotation mechanism .353.1.4 AC power supply363.2 Data Acquis

ition.363.2.1 Optical measurement 363.2.2 Fluid filling and experimental procedure .363.3 Data reduction and uncertainty analysis.374. Chapter 4: Results and discussions 404.1 Influences of surface inclination and type of surface roughness on the BHTCof HFE-7200.404.1.1 Surface characterization .404

.1.2 Influence of surface roughness type .404.1.3 Influence of surface inclination 444.1.4 Influence of heat flux474.1.5 Correlation development 494.1.6 Conclusions 504.2 Pool boiling of sintered coated surfaces.514.2.1 Characterization of test samples.514.2.2 Nucleate boiling curves544.2.3 Conclusi

ons 604.3 Enhancing boiling heat transfer for electronics cooling by embedding an arrayof micro grooves into sandblasted surfaces614.3.1 Characterization of test samples.614.3.2 Results and discussions 644.3.3 Comparison of compound and smooth polished surfaces644.3.4 Comparison of compound and mach

ined surfaces.674.3.5 Comparison of compound and sandblasted surfaces684.3.6 Comparison of polished, sandblasted, machined, and compound surfaces704.3.7 Conclusions 744.4 AI based BHTC assessment of micro porous surfaces.744.4.1 An overview of BHTC of microporous surfaces754.4.2 Methodology.774.4.3

Evaluating the performance of the DNN approach 824.4.4 Results and discussion834.4.5 Impact of input features on the prediction of the PBHTC874.4.6 Conclusions 884.5 Artificial intelligence for boiling heat transfer assessment of coatednanoporous surfaces .884.5.1 An overview of boiling literature o

n coated nanoporous surfaces.894.5.2 Motivation of the study.904.5.3 Methodology 914.5.4 Results and discussion1004.5.5 Sensitivity analysis.1044.5.6 Conclusions 1064.6 Factors affecting the boiling heat transfer coefficient of sintered coated poroussurfaces 1064.6.1 Overview of sintered coated surf

aces.1074.6.2 Aim and motivation of the study 1094.6.3 Materials and Methods1104.6.4 Results and discussions 1154.6.5 Conclusions 1264.7 A novel method to foresee the entire pool boiling curve .1274.7.1 Overview of the prediction methods 1274.7.2 Methodology.1294.7.3 Results and discussions 1305. Ch

apter 5: Conclusions and future recommendations. 1346. References . 1387. List of Publications (related to this thesis) 150

利用聚多巴胺複合高分子作為表面活性劑來製備Cu@Cu2O複合微孔濾膜用於水中溴離子之移除

為了解決Anodized type 3的問題，作者孫柏堯 這樣論述：

在這項研究中，我們在超疏水聚丙烯膜上共沉積聚乙烯亞胺和聚多巴胺作為親水活性改質層，以實現化學鍍銅的前處理過程。並且採用電化學方法將Cu微孔濾膜氧化成Cu2O微膜。Langmuir和Freundlich此兩個模型用於了解Br-在Cu2O微孔濾膜上在吸收平衡上的性質，並使用pseudo-second-model研究Br-的去除動力學。此外使用不同的競爭性陰離子和不同的pH值來探索Cu2O微孔濾膜在不同環境中Br-移除性能。Cu2O微孔濾膜的平衡吸附量為0.334mM/g，符合Langmuir吸附模型，即單層吸附。且由於CuBr的溶解度低，吸附的反應Cu2O 會與H+產生Cu+於水溶液中並且與Br

-過飽和析出的化學過程，而此化學吸附動力學可歸於擬二級模型。