27 computational-solid-mechanics Postdoctoral positions at The University of Arizona in United-States
-
to various world-class observational and computational facilities for ground-based radio and optical observing. Start dates range from August 2025 to August 2026. Outstanding UA benefits include health, dental
-
analysis. Present research findings in meetings and publish in scientific journals; maintain detailed records and datasets. Knowledge, Skills, and Abilities: Knowledge and experience with mechanical testing
-
, Optical Sciences, and Planetary Sciences. We provide direct access to various world-class observational and computational facilities for ground-based radio and optical observing. Outstanding UA benefits
-
fellow to investigate molecular mechanisms underlying lung infections (viral or fungal) and chronic lung diseases such as asthma. Research in the Chen lab is currently supported by multiple NIH R01 grants
-
applications from prospective postdoctoral scholars. Potential projects involve investigating the neural mechanisms underlying age-related changes in spatial navigation and memory. Methods to be used include
-
fellow to investigate molecular mechanisms underlying lung infections (viral or fungal) and chronic lung diseases such as asthma. Research in the Chen lab is currently supported by multiple NIH R01 grants
-
atmospheres. Research areas include hydrodynamic atmospheric escape from rocky exoplanets, nitrogen and sulfur cycling on early Mars and Earth, chemical kinetics of early Earth, Venus, Mars, and analogous
-
the Roman Coronagraph and future missions to image exoplanets such as the Habitable Worlds Observatory and other space telescope concepts. UA/SO offers a world-class research environment in ground and space
-
atmospheres. Research areas include hydrodynamic atmospheric escape from rocky exoplanets, nitrogen and sulfur cycling on early Mars and Earth, chemical kinetics of early Earth, Venus, Mars, and analogous
-
Shaowen Bao. The purpose of this position is to conduct investigation of the mechanisms underlying noise trauma-induced neuronal death using advanced molecular, cellular and electrophysiological techniques