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Thermoelectric materials.

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This dissertation by Binbin Xin explores the development of flexible inorganic and hybrid thin films based on layered calcium cobaltate (Ca3Co4O9). It focuses on the conversion of waste heat into electricity, addressing the need for self-sustaining energy sources in wearable and miniaturized electronics. The study highlights the advantages of calcium cobaltate, such as low cost, chemical stability, and the use of abundant raw materials, while tackling the rigidity of traditional inorganic materials. Through innovative fabrication techniques and the creation of nanoporous and hybrid films, the research aims to enhance the performance and flexibility of these materials. The intended audience includes researchers and professionals in materials science and engineering, particularly those interested in thermoelectric materials and sustainable energy solutions.

Thermoelectric materials. --- Thin films.

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Advanced Thermoelectric Materials for Energy Harvesting Applications is a research-intensive textbook covering the fundamentals of thermoelectricity and the process of converting heat energy into electrical energy. It covers the design, implementation, and performance of existing and advanced thermoelectric materials. Chapters examine such topics as organic/inorganic thermoelectric materials, performance and behaviors of thermoelectric devices, and energy harvesting applications of thermoelectric devices.

Thermoelectric materials. --- Condensed matte.

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This thesis by Mohammad Amin Gharavi focuses on the synthesis and theoretical prediction of nitride thin films, particularly exploring cubic chromium nitride (CrN) for thermoelectric applications. The research addresses the challenge of improving energy efficiency in devices that convert thermal gradients to electrical energy via the Seebeck effect. CrN films demonstrated promising properties such as high power factors and low thermal conductivity, potentially offering a more cost-effective and stable alternative to traditional materials. The study also investigates hypothetical ternary nitrides, aiming to enhance thermoelectric performance by reducing thermal conductivity. This work is intended for researchers and professionals in material science and physics, supported by extensive calculations and experimental methodologies.

Thermoelectric materials. --- Nitrides.

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This dissertation by Olga Bubnova explores the properties of conducting polymers, focusing on their potential for waste heat recovery. Bubnova investigates the thermoelectric efficiency of materials like Pedot, highlighting their low thermal conductivity and the ability to enhance electrical conductivity through doping. The research aims to provide a cost-effective and environmentally friendly solution to energy conversion challenges. The work is directed toward scientists and engineers interested in sustainable energy technologies, particularly in optimizing the performance of organic thermoelectric generators (OTEGs) for industrial and household applications. The findings suggest that conducting polymers, traditionally overlooked for energy conversion, can be optimized to improve their performance, offering a promising avenue for waste heat utilization.

Conducting polymers. --- Thermoelectric materials.