1. Chapter One Introduction to advanced fluids - p. 1 2. Chapter Two Impact of nanoparticle aggregation and melting heat transfer phenomena on magnetically triggered nanofluid flow: Artificial intelligence–based Levenberg–Marquardt approach - p. 13 3. Chapter Three Applications of nanofluids in refrigeration and air-conditioning - p. 35 4. Chapter Four Heat transfer enhancement with ferrofluids - p. 61 5. Chapter Five Nanofluids–Magnetic field interaction for heat transfer enhancement - p. 101 6. Chapter Six Impact of Ohmic heating and nonlinear radiation on Darcy–Forchheimer magnetohydrodynamics flow of water-based nanotubes of carbon due to nonuniform heat source - p. 135 7. Chapter Seven Thermos-physical properties and heat transfer characteristic of copper oxide–based ethylene glycol/water as a coolant for car radiator - p. 169 8. Chapter Eight Discussion on the stability of nanofluids for optimal thermal applications - p. 187 9. Chapter Nine Entropy optimization of magnetic nanofluid flow over a wedge under the influence of magnetophoresis - p. 209 10. Chapter Ten Nonaxisymmetric homann stagnation-point flow of nanofluid toward a flat surface in the presence of nanoparticle diameter and solid–liquid interfacial layer - p. 233 11. Chapter Eleven On the hydrothermal performance of radiative Ag–MgO–water hybrid nanofluid over a slippery revolving disk in the presence of highly oscillating magnetic field - p. 255 12. Chapter Twelve Application of nanofluids and future directions - p. 289 13. Chapter Thirteen Investigating magnetohydrodynamic natural convection in nanofluid-saturated enclosures through asymptotic expansions - p. 312 14. Index - p. 339
1. Chapter One Introduction to advanced fluids - p. 1 2. Chapter Two Impact of nanoparticle aggregation and melting heat transfer phenomena on magnetically triggered nanofluid flow: Artificial intelligence–based Levenberg–Marquardt approach - p. 13 3. Chapter Three Applications of nanofluids in refrigeration and air-conditioning - p. 35 4. Chapter Four Heat transfer enhancement with ferrofluids - p. 61 5. Chapter Five Nanofluids–Magnetic field interaction for heat transfer enhancement - p. 101 6. Chapter Six Impact of Ohmic heating and nonlinear radiation on Darcy–Forchheimer magnetohydrodynamics flow of water-based nanotubes of carbon due to nonuniform heat source - p. 135 7. Chapter Seven Thermos-physical properties and heat transfer characteristic of copper oxide–based ethylene glycol/water as a coolant for car radiator - p. 169 8. Chapter Eight Discussion on the stability of nanofluids for optimal thermal applications - p. 187 9. Chapter Nine Entropy optimization of magnetic nanofluid flow over a wedge under the influence of magnetophoresis - p. 209 10. Chapter Ten Nonaxisymmetric homann stagnation-point flow of nanofluid toward a flat surface in the presence of nanoparticle diameter and solid–liquid interfacial layer - p. 233 11. Chapter Eleven On the hydrothermal performance of radiative Ag–MgO–water hybrid nanofluid over a slippery revolving disk in the presence of highly oscillating magnetic field - p. 255 12. Chapter Twelve Application of nanofluids and future directions - p. 289 13. Chapter Thirteen Investigating magnetohydrodynamic natural convection in nanofluid-saturated enclosures through asymptotic expansions - p. 312 14. Index - p. 339
