Space@Hopkins seed grants support four interdisciplinary research projects
Group supports civilian space research from across Johns Hopkins University
Space@Hopkins, the umbrella organization for civilian space research at Johns Hopkins University, has awarded seed grants to four projects that focus on improving space travel and expanding the understanding of the history of Earth and other planets.
Space@Hopkins, led by Bloomberg Distinguished Professor Charles Bennett, enables space research across the university's divisions by awarding seed grants that can be used to support research teams while they generate preliminary results that will help them secure external funding. In particular, the seed grant program aims to foster interdisciplinary collaborations across the university and provide research opportunities for undergraduates.
"As America's first research institution with a long history in space research, Johns Hopkins is strategically positioned to create critical interdisciplinary approaches to space exploration," Bennett says. "This year, we are proud to fund projects that unite the health sciences with space science, physics and astronomy with archaeology, applied physics with biomedical innovations, and more. Through these grants, we are creating new avenues of innovation and training the next generation of space scientists in the process."
The four project proposals to receive funding are:
Detecting archaeological sites and raw material sources in satellite imagery
Principal investigator: Michael Harrower, assistant professor of archaeology
Archaeologists have long considered trade to be one of the primary influencers in the development of some of the world's earliest complex societies, but scientists have yet to determine where valuable raw materials were naturally available in the ancient world and where those materials were processed and consumed.
"New forms of satellite imagery and processing technologies now hold great promise for mapping raw material sources and the ancient villages, towns, and cities that used them," the team's proposal says.
Harrower will lead a team that includes three undergraduate students and co-investigators Daniel Viete and Benjamin Zaitchek, both from the Department of Earth and Planetary Sciences; Brice Menard from the Department of Physics and Astronomy; and Carey Priebe from the Department of Applied Mathematics and Statistics.
Real-time, multi-dimensional, in situ monitoring of human health and performance during extended space missions
Principal Investigator: Mark Shelhamer, associate professor of otolaryngology
The human body is subject to a great many stresses during space flight that cause well-documented physical changes, including changes in bone mass, muscle strength, cardiac function, and immune response. Less apparent, says Shelhamer, are changes that occur in human performance: reaction time, multi-tasking ability, and cognitive load, for example. These changes are difficult enough to track in a realistic manner in laboratory settings, much less the dynamic environment of space flight.
The multidisciplinary team will develop a mathematical-modeling and data-analytics approach to create an individual baseline for a person's performance in the hopes that even small deviations from baseline can be detected and addressed as harbingers of later, larger problems during space flight.
"It is time," the proposal says, "for an integrated approach, which treats the human as a total system rather than a loose assembly of isolated subsystems."
The team includes Michael Schubert, also from the School of Medicine's Department of Otolaryngology; Amy Haufler from the Johns Hopkins Applied Physics Laboratory; undergraduates Tina Nguyen, Serena Tang, and Kan Yaovatsakul; and postbacc Mackenzie Haberman.
Predicting planetary magnetic field reversals
Magnetic fields are generated in a planet's deep interior and extend beyond the surface where they are observable by spacecraft, making them important probes of planetary interior structure and dynamics. Investigations of magnetic fields can provide information on the thermal state, composition, and dynamics of planetary cores, as well as information on a planet's history, including past plate motions, polar wander, and thermal evolution.
"We are therefore proposing a new approach to investigating planetary magnetic field reversals," their proposal says. "This method will rely on using image recognition tools and machine learning algorithms to look for features in the observed magnetic field morphology that signify an impending reversal."
The team includes co-investigator Chris Baumgart from the Applied Physics Laboratory and undergraduate Sydney Timmerman.
Highest density tactomorphic sensors for space (suits and robots)
Principal Investigator: Nitish Thakor, professor of biomedical engineering
Touch is needed by humans and robots in space exploration, but the limitations of available technology and the requirement of space suits make touch impossible in some situations. This project aims to develop improved touch sensors and prosthetics that give astronauts and robots alike the ability to touch and grasp. The team includes co-investigator Ralph Etienne-Cummings and undergraduates Harrison Nguyen and Jonathan Fu.
For more information about next year's seed grant funding, email Kirsten Hall, space fellow and PhD candidate in the Department of Physics and Astronomy, at email@example.com.