Introduces state of the art in simulating heat transfer at the nano scale using molecular dynamic techniques
Presents nanofin applications in thermal management, energy efficiency technologies, and energy harvesting from various sources (solar thermal, nuclear, geothermal, and others)
Describes the promising technique of enhancing heat transfer by surface texturing using nanoparticle coatings or engineered nanostructures
Covers latest trends in nanoscale heat transfer
Nanofins Science and Technology describes the heat transfer effectiveness of polymer coolants and their fundamental interactions with carbon nanotube coatings that act as nanofins. Heat transfer at micro/nano-scales has attracted significant attention in contemporary literature. This has been primarily driven by industrial requirements where significant decrease in the size of electronic devices/chips with concomitant enhancement in the heat flux have caused challenging needs for cooling of these platforms. With quantum effects kicking in, traditional cooling techniques need to be replaced with more effective technologies. A promising technique is to enhance heat transfer by surface texturing using nanoparticle coatings or engineered nanostructures. These nanostructures are termed as nanofins because they augment heat transfer by a combination of surface area enhancement as well as liquid-solid interactions at the molecular scale.
Introduction: Terminologies, Definitions and Conundrums.- Nanofins: Science.- Nanofins: Applications.- Nanofins: Implications.
Introduction to problem.- Motivation for this work.- Methodology.- Literature on nanotubes.- Interfacial thermal resistance.- Molecular dynamics simulations.- Methods to simulate heat transfer.- Numerical techniques.- Procedure implementation.- Results of the case study.- Open questions.- Conclusions and Future Directions.
Inhaltsverzeichnis
Introduction: Terminologies, Definitions and Conundrums.- Nanofins: Science.- Nanofins: Applications.- Nanofins: Implications.
Klappentext
Nanofins Science and Technology describes the heat transfer effectiveness of polymer coolants and their fundamental interactions with carbon nanotube coatings that act as nanofins. Heat transfer at micro/nano-scales has attracted significant attention in contemporary literature. This has been primarily driven by industrial requirements where significant decrease in the size of electronic devices/chips with concomitant enhancement in the heat flux have caused challenging needs for cooling of these platforms. With quantum effects kicking in, traditional cooling techniques need to be replaced with more effective technologies. A promising technique is to enhance heat transfer by surface texturing using nanoparticle coatings or engineered nanostructures. These nanostructures are termed as nanofins because they augment heat transfer by a combination of surface area enhancement as well as liquid-solid interactions at the molecular scale.
Introduces state of the art in simulating heat transfer at the nano scale using molecular dynamic techniques
Presents nanofin applications in thermal management, energy efficiency technologies, and energy harvesting from various sources (solar thermal, nuclear, geothermal, and others)
Describes the promising technique of enhancing heat transfer by surface texturing using nanoparticle coatings or engineered nanostructures
Covers latest trends in nanoscale heat transfer
