• Skip to main content
  • Skip to after header navigation
  • Skip to site footer
ERN: Emerging Researchers National Conference in STEM

ERN: Emerging Researchers National Conference in STEM

  • About
    • About AAAS
    • About NSF
    • About the Conference
    • Project Team
    • Advisory Board
  • Conference
  • Abstracts
    • Abstract Submission Process
    • Abstract Submission Guidelines
    • Presentation Guidelines
  • Travel Awards
  • Resources
    • Award Winners
    • Code of Conduct-AAAS Meetings
    • Code of Conduct-ERN Conference
    • Conference Agenda
    • Conference Materials
    • Conference Program Books
    • ERN Photo Galleries
    • Events | Opportunities
    • Exhibitor Info
    • HBCU-UP PI/PD Meeting
    • In the News
    • NSF Harassment Policy
    • Plenary Session Videos
    • Professional Development
    • Science Careers Handbook
    • Additional Resources
    • Archives
  • Engage
    • Webinars
    • ERN 10-Year Anniversary Videos
    • Plenary Session Videos
  • Contact Us
  • Login

Real-time Monitoring of Gene Silencing in Schistosoma Mansoni Snail Host

Undergraduate #411
Discipline: Technology and Engineering
Subcategory: Electrical Engineering

Paul Wilson - University of the District of Columbia


Through working with a disease schistosomiasis, where snails carry parasitic worms using the snail as a host, there has been progress in creating a stimulant for this disease. When the stimulant is induced the sensors and probes that are currently available to date are not manufactured to work with the size of objects that are 2 to 3 mm in diameter. The need for the sensor and probe is to take action potential from the snail after the stimulant is induced, because it is found that the worms are dying but there is no way to detect if the snail is dying. The goal is to produce a sensor and probe that will be able to monitor the snails’ lethargic state. This requires the use of ultra-miniature fiber-optic transducer, small enough for insertion into carotid of the snail to capture carotid pulse. The miniature sensor used in this project is the Harvard University FISO sensor, which is about 125 μm in diameter. To eliminate the effect of a microbending of the sensor output, a real-time measurement system, which uses spectrum modulation, filtering, amplification and signal conditioning has been provided for use with the sensor. The signals captured will be processed and analyzed using Matlab software for feature extraction.

Not Submitted

Funder Acknowledgement(s): This research is supported by the UDC STEM Center for Research and Development (NSF/HBCU-UP – HRD 162281

Faculty Advisor: Dr. Ososanya, eososanya@udc.edu

Role: I researched the disease and the type of equipment needed for the part needed by the technology people. Found were this type of equipment could be found. I then reached out to the people who were able to assist us in obtaining this equipment and then went through the steps of acquiring it.

Sidebar

Abstract Locators

  • Undergraduate Abstract Locator
  • Graduate Abstract Locator

This material is based upon work supported by the National Science Foundation (NSF) under Grant No. DUE-1930047. Any opinions, findings, interpretations, conclusions or recommendations expressed in this material are those of its authors and do not represent the views of the AAAS Board of Directors, the Council of AAAS, AAAS’ membership or the National Science Foundation.

AAAS

1200 New York Ave, NW
Washington,DC 20005
202-326-6400
Contact Us
About Us

  • LinkedIn
  • Facebook
  • Instagram
  • Twitter
  • YouTube

The World’s Largest General Scientific Society

Useful Links

  • Membership
  • Careers at AAAS
  • Privacy Policy
  • Terms of Use

Focus Areas

  • Science Education
  • Science Diplomacy
  • Public Engagement
  • Careers in STEM

Focus Areas

  • Shaping Science Policy
  • Advocacy for Evidence
  • R&D Budget Analysis
  • Human Rights, Ethics & Law

© 2023 American Association for the Advancement of Science