Dr. Meng Cui's lab focuses on advancing imaging technologies for neuroscience, specifically through the development of a Light Pipe Microscope (LPM) designed for high-resolution imaging of the mammalian brain. The lab's work aims to enhance our understanding of neural circuits by enabling the observation of brain activity over large areas at a cellular level. By combining engineering innovations and neuroscience, they strive to provide low-cost, high-quality imaging solutions that can be broadly adopted to study brain function and cognition.

Dr. Chi Hwan Lee's research lab at Purdue University is focused on developing innovative smart soft contact lenses designed to monitor intraocular pressure continuously, particularly for glaucoma patients. These contact lenses aim to be comfortable and safe for long-term wear, allowing more accurate tracking of eye pressure to prevent vision loss. The lab combines biomedical engineering principles with advanced material science to create a new generation of ocular devices that could also benefit patients with other eye diseases.

Dr. Kevin J. Otto's research lab at Purdue University focuses on using advanced electrical microstimulation techniques to manipulate neural activity in the central nervous system. The team develops and optimizes microelectrode arrays to improve treatments for neurological conditions. By creating safe and effective neuroprosthetic technologies, they aim to enhance the quality of life for individuals with nervous system injuries or diseases.

Dr. Luis Solorio's research lab focuses on combatting aggressive forms of cancer, such as pancreatic and breast cancer, by understanding and manipulating the tumor environment. The team is working on innovative strategies to enhance drug delivery directly to tumors and to disrupt the processes that allow cancer to spread to other parts of the body. They employ advanced engineering techniques and biological models to improve therapeutic outcomes for patients.

Chongli Yuan's research lab at Purdue University focuses on understanding how environmental factors, particularly exposure to lead, interact with genetic risks and contribute to Alzheimer's disease and related dementia (AD/ADRD) as people age. Through innovative engineering and modeling techniques, the lab aims to shed light on the biological processes involved in these interactions. The lab utilizes advanced neuronal models to explore how exposure to lead during vulnerable developmental periods can lead to long-term neurological issues and offers insights into potential interventions.