Find us On Facebook Twitter
News
news and events Events Energy Lectures Sustainability 2011 Sustainability 2010 Sustainability 2009 White Symposium Whiting Turner Lectures Current News News Archives Search News Press Coverage Press Releases Research Newsroom RSS feed Events Calendar events events

News Story

Current Headlines

"Gentle Delivery" Kits Could Help Bring Gene Therapies to Market

MDSE Sends Team to Sierra Leone to Support Community Projects

Professor Peter Sandborn Elected ASME Fellow

Clark School Students Study Solar Energy in China

CyberSTEM Camp Inspires Middle School Girls

Bentley Elected ACS Fellow

University of Maryland Creates Master's in Robotics Targeted at High-Tech Professionals

Two UMD Teams Among Seven Finalists Selected for NASA X-Hab Challenge

M-CERSI Hosts Conference on Human Reliability Analysis of Medical Devices, Aug. 26

Schmaus Awarded Sikorsky Aircraft Fellowship

News Resources

Return to Newsroom

Search Clark School News

Research Newsroom

Press Releases

Archived News

Magazines and Publications

Press Coverage

Clark School RSS Feed

Events Resources

Clark School Events

Events Calendar

Bookmark and Share

Horiuchi, Moss Receive $1.5M NSF Grant

Associate Professor Timothy Horiuchi (co-PI; ECE/ISR) and Professor Cynthia Moss (PI; psychology/ISR) have won a $1.5 million National Science Foundation Collaborative Research in Computational Neuroscience grant, "Adaptive perceptual-motor feedback for the analysis of complex scenes."

The five-year grant will fund research to understand the processes that support perception and action in complex settings. The research will focus on spatial perception and navigation in the echolocating bat, an auditory specialist that produces high frequency sonar calls and listens to echo returns to determine the location of objects in its environment. The echolocating bat modifies its sonar calls in response to echo information from targets (insect prey) and obstacles.

Quantitative analyses of this animal's adaptive vocal behavior will be used to infer its perception of a changing environment. The biological component of this research combines behavioral and neurophysiological experiments to gain insight to how sensory information from complex scenes is coded and used to guide behaviors. Analysis of behavioral and neural data will be coordinated with modeling efforts and the development of a robotic spatial navigation system. Together, the biological and engineering arms of this research project will generate new knowledge that contributes to a deeper understanding of perception and action in complex, natural environments.

The project will translate knowledge and methodologies across biology and engineering, ranging from ethology and neurobiology to computational modeling and robotic demonstrations. The research has wide-ranging impact for neurobiology, interdisciplinary research training, neuroscience techniques, robotics, and the design of assistive devices.

Related Articles:
Tiny Hairs on Bats' Wings Act as Speedometers

September 30, 2010


Prev   Next