Viticulture and Enology

David E. Block, Ph.D.

  • Professor
  • Viticulture and Enology
Dept. of Chemical Engineering and Materials Science. Development of novel optimization methods for bioprocessing, including use of artificial neural networks; optimization based on historical data and efficient methods of bioprocess development; process monitoring methods for wine processing; fermentation of biological control agents active against grape plant pathogens.

Susan E. Ebeler, Ph.D.

  • Professor
  • Viticulture and Enology
Flavor chemistry and analysis; interaction of flavors with other (non-volatile) food/beverage components. correlation of instrumental and sensory methods of flavor analysis; health effects of wine; development of analytical methodologies for analysis of wine components.
3148 RMI North

Hildegarde Heymann, Ph.D.

  • Distinguished Professor
  • Viticulture and Enology
Sensory evaluation of wines and other food products. The study of descriptive analysis and time-intensity methodology and the use multivariate data analyses to integrate sensory and consumer ratings. The use of sensory science to study food and wine.
2030 RMI Sensory

Ha Nguyen

  • Assistant Professor of Sensory Science
  • Viticulture and Enology
Psychophysics, sensory and consumer research integrated with cutting-edge approaches, including genetics, molecular biology, and data science, to improve product quality, food and nutrition security, and human health.
2030 Robert Mondavi Institute - Sensory

Ron C Runnebaum, Ph.D.

  • Assistant Professor
  • Viticulture and Enology
Dr. Runnebaum's research program aims to combine his interests in sustainable winemaking with his research background in nanomaterials, adsorption, heterogeneous catalysis, and reaction engineering. Winemaking-related projects include 1) Developing materials to capture CO2 and volatile organic compounds, especially from fermentation; 2) Developing fundamental understanding for the production of chemicals from winery waste streams; and 3) Designing solid-state materials for the replacement of solution-based treatments, particularly those that could improve sustainability. In addition, Dr. Runnebaum continues to investigate fundamental structure-activity relationships in chemical adsorption and reaction by nanomaterials, including zeolites and supported organometallic clusters.