Event Title
Hydrogen Isotopic Gas Separation in Metal Organic Frameworks
Location
Science Center A247
Start Date
10-27-2017 3:00 PM
End Date
10-27-2017 4:20 PM
Poster Number
59
Abstract
Deuterium is a rare isotope of hydrogen that has applications in NMR, nuclear power, and as a medical tracer. Due to its value and scarcity, there is significant interest in developing new methods to more effectively and cheaply separate deuterium (D2) from common hydrogen (H2). We are investigating a separation method using a class of materials called Metal Organic Frameworks (MOFs). These MOFs act like sponges, adsorbing both isotopes into distinct sites at very low temperature. When heated, the isotopes escape from these sites at slightly different temperatures due to the difference in their quantum zero-point energy. How can we make this separation better? Is there a smarter way? What quantum shenanigans are left to exploit? Our talk will answer these questions and more.
Recommended Citation
Rigdon, Katie and Hietanen, Isaac, "Hydrogen Isotopic Gas Separation in Metal Organic Frameworks" (2017). Celebration of Undergraduate Research. 2.
https://digitalcommons.oberlin.edu/cour/2017/panel_03/2
Major
Katie Rigdon, Physics; Dance
Isaac Hietanen, Physics; Politics
Project Mentor(s)
Stephen FitzGerald, Physics
Document Type
Presentation
Hydrogen Isotopic Gas Separation in Metal Organic Frameworks
Science Center A247
Deuterium is a rare isotope of hydrogen that has applications in NMR, nuclear power, and as a medical tracer. Due to its value and scarcity, there is significant interest in developing new methods to more effectively and cheaply separate deuterium (D2) from common hydrogen (H2). We are investigating a separation method using a class of materials called Metal Organic Frameworks (MOFs). These MOFs act like sponges, adsorbing both isotopes into distinct sites at very low temperature. When heated, the isotopes escape from these sites at slightly different temperatures due to the difference in their quantum zero-point energy. How can we make this separation better? Is there a smarter way? What quantum shenanigans are left to exploit? Our talk will answer these questions and more.
Notes
Session I, Panel 3 - Physical | Science
Moderator: Jason Stalnaker, Associate Professor of Physics