Ice Core Collection Experimental Device (ICCED)

The Ice Core Collection Experimental Device (ICCED) is designed for participation in the NASA Microgravity Neutral Buoyancy Experiment Design Teams (Micro-g NExT) “Under Ice Sampling Device” challenge. This challenge involves the design, development, and testing of a sampling device that will interf...

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Bibliographic Details
Main Authors: Hancock, Delaney, White, Cory, Excell, Richie, Wright, Ashley, George, Aldous, Adelizzio, Vincent, Banner, Benjamin, Jefts, David, Hatchell, Hunter, Matievski, Andrew, Hess, Tony, Bibawy, Merit, Ashok, Robin Hood, Marzen, Brittney, Randall, Justin, Averett, Sarah
Other Authors: hancocd5
Format: Text
Language:unknown
Published: Scholarly Commons 2018
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Online Access:https://commons.erau.edu/discovery-day/db-discovery-day-2018/poster-session/6
https://commons.erau.edu/context/discovery-day/article/1247/viewcontent/Hancock__Delaney_ICCED_Poster.pdf
Description
Summary:The Ice Core Collection Experimental Device (ICCED) is designed for participation in the NASA Microgravity Neutral Buoyancy Experiment Design Teams (Micro-g NExT) “Under Ice Sampling Device” challenge. This challenge involves the design, development, and testing of a sampling device that will interface with a submersible vehicle in order to obtain subsurface ice samples in an underwater environment. ICCED is a remotely controlled, underwater drilling device designed to excavate and extract ice cores of 0.5 inches in diameter and 3 inches in length. ICCED consists of a drill connected to a linear slide, which is controlled by a microprocessor and able to cut through ice with the help of attached blades and a servo to power the drill. This device is designed for operation in environments such as those present on the moons of Europa and Enceladus, during which it will be able to drill into an ice surface, collect a sample, and secure the sample inside an insulated module. Development of the device is currently in the prototyping stage. Prototyping will be finished by the end of March, and the team will begin testing the prototype and redesigning, with a final model completed in April. Once final development is completed, the design will be tested in the Johnson Space Center’s Neutral Buoyancy Laboratory.