This book aims to provide a forward-looking perspective on thermoelectric materials by connecting classical thermoelectric science with emerging paradigms in Artificial Intelligence, Machine Learning, autonomous experimentation, and data-driven materials discovery.
We welcome original research and review chapters related to:
πΉ Phonon-Glass Electron-Crystal (PGEC) materials
πΉ Band structure and defect engineering
πΉ High-throughput screening and inverse design
πΉ Nanostructured thermoelectrics
πΉ Thermal conductivity suppression
πΉ Waste heat recovery technologies
πΉ Wearable and sustainable energy devices
πΉ AI and machine learning applications in materials science
Why publish with IntechOpen?
β
Open Access publication with global visibility
β
Rigorous peer review following COPE ethical guidelines
β
Authors retain copyright under Creative Commons licensing
β
Indexed in major scientific databases (Crossref, DOAB, OpenAIRE, etc.)
β
Dedicated editorial and publishing support throughout the process
π
Important Dates
β’ Chapter Proposal Submission: 30 June 2026
β’ Full Chapter Submission: 1 September 2026
β’ Final Book Publication: 27 February 2027
I warmly invite researchers, scientists, and industry professionals working in thermoelectrics, energy materials, nanotechnology, and computational materials science to contribute to this project.
π© For inquiries, collaborations, or submission guidance:
mohammad.nasiri@uv.es
π Book Project Link:
https://lnkd.in/evhAz5Vi
Dr. Mohammad Ali Nasiri is a researcher and innovator with over five years of cleanroom experience in micro- and nanoelectronic device design and fabrication. His technical expertise includes thin-film deposition, precision electrical contacts, dry and reactive ion etching, and photolithographic mask design. He is proficient in advanced characterization methods such as AFM, XRD, XPS, SEM, FESEM, FTIR, spectroscopic ellipsometry, and electrochemical analysis, as well as thermoelectric property measurements (Seebeck coefficient, electrical and thermal conductivity).
Dr. Nasiri holds two masterβs degrees (Aeronautical Engineering and Nanomaterials Science) and a PhD from the University of Valencia (ICMOL), where he developed next-generation thermoelectric materials for direct heat-to-electricity conversion. His thesis introduced four original platforms for thermal conductivity measurement and advanced sustainable energy materials, including lignin-based ionic membranes and hybrid MXene/CNT/lignin electrodes. Currently a postdoctoral researcher at ICMUV (University of Valencia), he is developing perovskite-based photodetectors for sensing and biomedical imaging, bridging fundamental materials science with applications in clean energy, electronics, and optoelectronics.
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