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91探花
Juno Jupiter image

Duncan Lyster

DPhil Student - Planetary Physics

Research theme

  • Exoplanets and planetary physics

Sub department

  • Atmospheric, Oceanic and Planetary Physics

Research groups

  • Planetary surfaces
  • Space instrumentation
duncan.lyster@physics.ox.ac.uk
Atmospheric Physics Clarendon Laboratory
  • About
  • Publications

Detection and Tracking of Space Debris in Cislunar Environment - A Phase 0 Mission Design

Curran Associates (2024) 1188-1204

Authors:

Alessandro Mastropietro, Katharina-In茅s Janisch, Daniel Wischert, Flavie Aditya Annick Suzanne Davida Tohotaua Rometsch, Jennifer Hoffmann, Ross Findlay, Lucas Adloff Cardoso Pinto, Sergi Aliaga, Damien Baclet, Raquel Baptista, Daniel Betco, Reto Bischof, Emanuele Celardo, Angela Cratere, Kamil Dylewicz, Caner Eris, S铆lvia Farr脿s Aloy, Sinan Felix Klein, Ux铆a Garc铆a Luis, Damian Grabowski, Wilhelm Kristiansen, Erikas Kymantas, Fabiola Luna La Fazia, Sergio L贸pez Acedo, Duncan Lyster, Kais Mahmood, Jakub Ma拧ek, Alessandro Miceli, Margherita Michahelles, Nick Parak, Jacob Pittaway, Dominika Pytlak, Thorvi Ramteke, Nuno Rebolo, Kristina Remic, Noah Isaac Sadaka, Christina Sakellari, Alexandros Votsis, Sachin Yadav

Tailoring Infrared Filters for Global Mapping of Enceladus' Surface Temperatures

Curran Associates (2024) 935-941

Authors:

Duncan Lyster, Carly Howett, Neil Bowles, Keith Nowicki, Rory Evans, Tristram Warren

Mineral dust increases the habitability of terrestrial planets but confounds biomarker detection.

Nature communications 11:1 (2020) 2731

Authors:

Ian A Boutle, Manoj Joshi, F Hugo Lambert, Nathan J Mayne, Duncan Lyster, James Manners, Robert Ridgway, Krisztian Kohary

Abstract:

Identification of habitable planets beyond our solar system is a key goal of current and future space missions. Yet habitability depends not only on the stellar irradiance, but equally on constituent parts of the planetary atmosphere. Here we show, for the first time, that radiatively active mineral dust will have a significant impact on the habitability of Earth-like exoplanets. On tidally-locked planets, dust cools the day-side and warms the night-side, significantly widening the habitable zone. Independent of orbital configuration, we suggest that airborne dust can postpone planetary water loss at the inner edge of the habitable zone, through a feedback involving decreasing ocean coverage and increased dust loading. The inclusion of dust significantly obscures key biomarker gases (e.g. ozone, methane) in simulated transmission spectra, implying an important influence on the interpretation of observations. We demonstrate that future observational and theoretical studies of terrestrial exoplanets must consider the effect of dust.

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