Realizing a sustainable energy future is one of the most important problems facing our society. Thermoelectric devices convert waste heat to electricity and have several applications: improving transportation efficiency, recovering heat from power plants, and enabling solar thermal power generation. While thermoelectrics are already employed in small and mission-critical applications like space exploration, large-scale applications that impact our energy future have been limited by the performance and cost of known thermoelectric materials like PbTe and Bi2Te3.

Specific Responsibilities:

• This project will apply new and powerful techniques, beyond the domain of what has been attempted before, to the search for completely new thermoelectric materials. This approach will merge computational modeling based on density functional theory (DFT) and related techniques, high-throughput calculations at supercomputing centers, data mining and statistical analysis, and collaboration with an experimental partner.
• Use supercomputers to virtually screen tens of thousands of materials as promising thermoelectric materials.
• Use the resulting data set to uncover new physical principles and theories for thermoelectric design that could not be otherwise found.
• Collaborate with an experimental partner to realize these compounds in the lab. All this will occur as part of a small and tightly-knit research group that will work together towards making large-scale thermoelectrics a reality.

Required Qualifications:

• Ph.D. in related field; knowledge of thermoelectric materials and/or solid state physics.
• Experience with solid state DFT methods (calculation of band structures, treatment of correlated electrons, defect calculations, phonon calculations).
• High aptitude and desire for programming and building software infrastructure; object-oriented programming, databases (MongoDB preferred), software engineering practice (version control, unit testing, continuous integration). Preferred language of experience is Python.
• Expert in use and application of the Materials Project (http://www.materialsproject.org) database, a resource built in part by our group for high-throughput calculation and dissemination.
• Excellent communication skills.
• Prior collaboration with an experimental synthesis team is a plus.

The position will be part of a new research team for computational materials design under Dr. Anubhav Jain at Lawrence Berkeley National Laboratory in Berkeley, CA.

To apply, please visit:

https://lbl.taleo.net/careersection/2/jobdetail.ftl?lang=en&job=81021