"Modulating Mind, Body, and Space" introduces basic concepts and techniques for conceiving, building, and programming objects, spaces, and media that sense and respond to their physical surroundings.

Contribute to our ongoing clinical and pre-clinical research and develop emerging biomedical imaging technologies that help improve the understanding, diagnosis, and treatment of neurological diseases.

Students will contribute to the creation and characterization of animal models of neural development using animal husbandry and genotyping, biochemical techniques, morphological and cell biological analysis.

Students will participate in a USDA-funded project to identify and characterize gene regulatory sequences throughout the genomes of 50 or more insects of agricultural and biomedical importance.

In this project, we will use a variety of pharmacological and sophisticated molecular techniques, including optogenetics, to determine which brain regions and neurotransmitters are responsible for the motivation to consume alcohol.

Real-time structural sensing is conventionally provided by embedded/attached sensors, which result in high cost, low durability, small sensing volume and the mechanical performance being diminished. This research provides structural self-sensing, i.e., the structures sensing themselves without sensor incorporation.

The study aims to investigate how well English-speaking children between ages 3 and 5 are able to produce grammatical sentences in a picture description task.

Seeking students to characterize gene expression patterns in mosquito embryos, regulatory sequences in transgenic fly and mosquito models, and explore the function of regulatory elements through mutagenesis.

The Editing Digital Culture project seeks to link students with projects that are working to transform historical cultural documents into high-quality resources for the public on the web.

Positions filled but applications accepted on a rolling basis for research in the Self and Motivation Lab.