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Section 37 Page Hydrogen Evolution in Zinc-Chlorine Batteries 37-1 Introduction 37-1 Characterizationof the Zinc Transfer Cell 37-2 Hydrogen Evolution 37-8 Discussion 37-16 The Zinc-Chlorine Battery: Half-Cell Overpotential Measurements A-l Introduction A-2 Experimental A-3 Results and Discussion A-6 Conclusions A-12 Acknowledgment A-13 References A-13 An Improved Condensing Method for Refrigeration Equipment B-l Introduction B-l Project Objectives B-3 Analytical Program Initiated B-3 Modeling of a Tube and Plate Fin Type Evaporative Condenser for Wetted, Partially Wetted and Unwetted Operation B-3 Performance of Refrigeration System B-18 Summary B-22 References B-24 Analysis of Evaporative Cooling and Enhancement of Condenser Efficiency and of Coefficient of Performance C-l Introduction C-l Basic Principles of Evaporative Cooling C-2 Modeling of a Plate-Fin Tube Type Condenser for Wetted, Partially Wetted and Unwetted Operation C-5 Method of Analysis of Combined Heat and Mass Transfer and Determination of Changes of State of Air and Water in the Wetted Heat Exchanger C-8 Basic Heat Transfer Equations C-16 Results of Computations and Comparison of Performance of Dry and Wetted Condensers of Given Geometry C-22 APPENDIX A APPENDIX B APPENDIX C Conclusions Acknowledgments References C-32 C-34 C-35 xvPDF Image | Development of the Zinc-Chlorine Battery for Utility
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