Results

Displaying 157-168 of 274 Results

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Media Literacy and Online Critical Thinking Initiatives
  • PI Diane Zorri

    CO-I Ann Phillips

    CO-I Daniel Gressang

    CO-I Matthew Sharp

    CO-I Mihhail Berezovski

    CO-I Rachel Silverman

    CO-I Steven Master

  • This project proposes a train-the-trainer professional development program for Volusia county’s secondary school educators to co-opt pedagogical tools and methods that challenge online violence mobilization narratives, increase awareness of violent extremist messaging and recruiting, and increase the capabilities of targeted populations to resist and counter messaging. 
Mesoscale Computer Modeling of the North American Monsoon over Arizona
  • PI Dorothea Ivanova

  • The Department of Meteorology is involved in research on the North American (Mexican) Monsoon in Arizona and the U.S. Southwest.
Meta-Analyses of the Effects of Standardized Handoff Protocols on Patient, Provider, and Organizational Outcomes
  • PI Joseph Keebler

    CO-I Elizabeth Lazzara

  • This meta-analysis attempts to understand the benefits of a structured communication process on patient, provider, and organizational outcomes. Studies have found that one of the most crucial points during a patient’s hospital stay is the transition of care between one or more providers, often referred to as a patient handoff. These brief interactions between providers are often especially vulnerable to communication breakdowns due to interruptions, omission of pertinent information by the sender or receiver of the information. To illustrate, upwards of 80% of severe, preventable medical errors have been attributed to miscommunication during handoffs. In other words, failures in communication during handoff are potentially responsible for the loss of hundreds of thousands of lives every year in the United States.
Microfluidic Chip & Magnetic 3D Bioprinting Research
  • Breast and colon cancer are the leading causes of death in developed countries (e.g., U.S.) and are highly associated with numerous risk factors including genetics, diet, obesity, cigarette smoking, hypertension, stress, and spaceflight stressors. Despite advances in the diagnosis and treatment of cancer, the mortality rates are still high and the potential mechanisms driving the metastatic potential of the cancer cells are still not well characterized.

Mixing of a supercritical jet in a supercritical cross-flow
  • PI Neil Sullivan

    CO-I Mark Ricklick

  • This project is focused on the exploration and validation of numerical modeling techniques, for the simulation of supercritical jets in crossflow. 
Multi-Modal Sensor Fusion for ASV Situational Awareness
  • PI Eric Coyle

    CO-I Patrick Currier

  • An investigation into strategies and techniques for maritime object detection and classification using visual and spatial data with an emphasis on sensor fusion.
Multiscale Computational and Experimental Framework to Elucidate the Biomechanics of Infant Growth
  • PI Victor Huayamave

  • There is currently a lack of biomechanical quantification of growth and development because: (1) there is no generic musculoskeletal infant model, and (2) the lack of infant data in the literature.

N

Nanoscale Design of Interfacial Kinematics in Composite Manufacturing
  • PI Sirish Namilae

    CO-I Marwan Al-Haik

  • This NSF-funded research will elucidate the role of interfacial kinematics and energetics in the evolution of inter-ply interfaces in composite structures during manufacturing. The research team will develop a novel experimental method for in-situ characterization of surface and interface deformations during composite processing, utilizing a customized commercial composite autoclave with a digital image correlation system. The surface strain and displacement measurements will be combined with ex-situ X-ray tomography and thermal characterization to map the interfacial thermomechanical response as a function of design and processing parameters. Additionally, the interfacial behavior will be engineered through the rapid and controlled growth of ZnO nanowires on carbon fibers to create a nanoscale interfacial component that increases the fiber bending resistance and creates an interlocking effect at the interfaces to mitigate defects propagation. The experimental research will be complemented by molecular dynamics simulations of the sliding of amorphous polymer interfaces and mesoscale simulation of flow in porous media. This comprehensive approach of in-situ characterization, interface design, and modeling will lead to a fundamental understanding of the ply movement during composite manufacturing and development of methods to reduce the occurrence of processing-induced defects.

NASA/ZeroG Microgravity Research
  • CO-I Pedro LLanos

    CO-I Sathya Gangadharan

  • Embry-Riddle Aeronautical University and Carthage College proposed a technology demonstration that has several advantages over passive slosh control. Relative to slosh baffles, the proposed MAPMD technology has a lower total mass, a much higher degree of surface wave suppression, and less volumetric intrusion into the tank. The MAPMD concept also is optimized for cylindrical tanks (unlike elastomeric diaphragms, which work only in spherical pressure vessels), and currently requires no structural design changes to existing cylindrical propellant tanks.
NASA’s Embry-Riddle High-Altitude Science Experiment Rig (ERHASER)
  • PI Pedro LLanos

    CO-I Sathya Gangadharan

  • The purpose of this study aboard the NASA’s Airborne Science Program WB-57 aircraft was to assess the effect of radiation on murine naïve and activated T lymphocytes (T cells) and to test the effectiveness of thermal, radiation and flight tracking technology in biological scientific payloads. Flight cells were kept under proper environmental conditions by using an active thermal system, whereas the levels of radiation were measured by NASA’s Timepix radiation sensor during ascent, cruise at 60,000 feet, and descent.
Natural Fiber Reinforced Polymer (NFRP) Composites
  • PI Birce Dikici

  • This research is directed toward understanding the thermophysical and nanomechanical properties of NFRP composites in order to predict and optimize the behavior of the final product.