About the Author 1 Introduction 2 Conduction of Heat in Mass Concrete, Boundary Conditions, and Methods of Solution 3 Temperature Field in the Operation Period of a Massive Concrete Structure 4 Placing Temperature and Temperature Rise of Concrete Lift due to Hydration Heat of Cement 5 Natural Cooling of Mass Concrete 6 Stress-Strain Relation and Analysis of Viscoelastic Stress of Mass Concrete 7 Thermal Stresses in Fixed Slab or Free Slab 8 Thermal Stresses in Concrete Beams on Elastic Foundation 9 Finite Element Method for Computing Temperature Field 10 Finite Element Method for Computing the Viscoelastic Thermal Stresses of Massive Concrete Structures 11 Stresses due to Change of Air Temperature and Superficial Thermal Insulation 12 Thermal Stresses in Massive Concrete Blocks 13 Thermal Stresses in Concrete Gravity Dams 14 Thermal Stresses in Concrete Arch Dams 15 Thermal Stresses in Docks, Locks, and Sluices 16 Simulation Analysis, Dynamic Temperature Control, Numerical Monitoring, and Model Test of Thermal Stresses in Massive Concrete Structures 17 Pipe Cooling of Mass Concrete 18 Precooling and Surface Cooling of Mass Concrete 19 Construction of Dam by MgO Concrete 20 Construction of Mass Concrete in Winter 21 Temperature Control of Concrete Dam in Cold Region 22 Allowable Temperature Difference, Cooling Capacity, Inspection and Treatment of Cracks, and Administration of Temperature Control 23 Key Principles for Temperature Control of Mass Concrete Appendix: Unit Conversion References Index