#LPSC2023
#LPSC2023

Program with Links to Abstracts
Schedule Overview
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Poster Session: Operational Analogues and Technology Demonstration
Tuesday, March 14, 2023, 6:30 PM
Town Hall Exhibit Area
Valinia A.*
Minow J.
Required Space Weather Reconnaissance in the Artemis Era
[#1165]
This paper discusses space weather reconnaissance capabilities required for long-term human expeditions to the Moon, Mars, and beyond in the Artemis era.
This paper discusses space weather reconnaissance capabilities required for long-term human expeditions to the Moon, Mars, and beyond in the Artemis era.
Phipps P. H.*
Stubbs T. J.
Looper M. D.
Spence H. E.
Townsend L. W.
Radiation Dose Around the Lunar South Pole Near the Candidate Landing Sites for the Artemis III Mission
[#2466]
The Moon’s harsh radiation environment poses a challenge to future science and exploration activities. We show radiation maps around Artemis III landing sites.
The Moon’s harsh radiation environment poses a challenge to future science and exploration activities. We show radiation maps around Artemis III landing sites.
Hutchison A. L.
Foing B.*
Gil Natividad M.
Wurtz-Pra S.
Hayes C.
et al.
Student Research in an Analog Lunar Habitat: EuroMoonMars and Analog Astronaut Training Center Poland EMMPOL 2023 Campaigns 14 and 15
Astronaut Training Center Poland EMMPOL 2023 Campaigns 14 & 15.
[#2759]
EuroMoonMars and the Analog Astronaut Training Center present student research from the 2023 EMMPOL Campaigns 14-15 from their isolated analog lunar habitat.
EuroMoonMars and the Analog Astronaut Training Center present student research from the 2023 EMMPOL Campaigns 14-15 from their isolated analog lunar habitat.
Gil Natividad M.*
Planning and Integration of Instruments to Support IVA/EVA Activities for ExoSpaceHab
[#2827]
The analog missions are a key activity to prepare the future missions to the surface of other celestial bodies.
The analog missions are a key activity to prepare the future missions to the surface of other celestial bodies.
Battler M. M.*
Cross M.
Raimalwala K. V.
Burd H.
Pitropov M.
et al.
Lunar Surface Science And Exploration: A Highlight from the ESA-ESRIC Space Resources Challenge
[#2672]
Overview of lunar mission operations approaches and technologies at the ESA-ESRIC Space Resources Challenge, Luxembourg, 2022.
Overview of lunar mission operations approaches and technologies at the ESA-ESRIC Space Resources Challenge, Luxembourg, 2022.
DiVito E.*
Tuck C.
Peters G. H.
McCulloch D.
Leveraging Suborbital Flight Testing to Advance Science and Technology for Planetary Exploration
[#2815]
NASA’s Flight Opportunities program leverages suborbital and orbital flight tests to demonstrate space technologies ahead of larger, more expensive missions.
NASA’s Flight Opportunities program leverages suborbital and orbital flight tests to demonstrate space technologies ahead of larger, more expensive missions.
Morse Z. R.*
Whelley P.
Achilles C.
Rogers A. D.
Hurtado J. M.
et al.
Operational Testing and Analysis of Field Portable Instrument Datasets During the 2022 RISE2 Analog Lunar EVAs
[#2694]
In the hot desert / Useful data were assessed / Through test EVAs.
In the hot desert / Useful data were assessed / Through test EVAs.
Meier M. L.*
Patterson R. V.
Pearson N. C.
Clark R. N.
Martin A. C.
et al.
Terrestrial Analog Analysis: Mineralogical Evaluation Within the Visible and Near-Infrared
[#2742]
TREX Theme 4 planetary analog field season, focusing on mineral identification using spectroscopy, and crew and rover procedures.
TREX Theme 4 planetary analog field season, focusing on mineral identification using spectroscopy, and crew and rover procedures.
Steckel A. V.*
Clark R. N.
Pearson N. C.
Buxner S.
Prettyman T. H.
et al.
Utilizing a Hyperspectral Camera for Field Surveys During the TREX Field Mission
[#2720]
A hyperspectral imager was included in the TREX Yellow Cat field campaign to act as a drone scouting sites for the rover.
A hyperspectral imager was included in the TREX Yellow Cat field campaign to act as a drone scouting sites for the rover.
Kumari N.*
Prettyman T. H.
Lane M.
Martin A. C.
Patterson R. V.
et al.
Procedure Standardization for Toolbox for Research and Exploration (TREX) Field Data Analysis
[#1814]
This abstract describes approaches to procedure standardization for field that could be implemented in future TREX field exercises.
This abstract describes approaches to procedure standardization for field that could be implemented in future TREX field exercises.
Noe Dobrea E. Z.*
Ahrens C.
Banks M. E.
Bell E.
Breitfeld A.
et al.
Autonomous Rover Science in the Field: Yellow Cat
[#2366]
We field-tested a rover capable of science autonomy and explored multiple exploration scenarios, including astronaut/rover collaborative exploration.
We field-tested a rover capable of science autonomy and explored multiple exploration scenarios, including astronaut/rover collaborative exploration.
Fisher K. R.*
Qian F.
Jerolmack D.
Rivera-Hernandez F.
Wilson C.
et al.
LASSIE: Legged Autonomous Surface Science In Analogue Environments
[#1752]
LASSIE will use legged robotic locomotion to measure changes in surface regolith strength in-situ and use this data for semi-autonomous exploration strategies.
LASSIE will use legged robotic locomotion to measure changes in surface regolith strength in-situ and use this data for semi-autonomous exploration strategies.
Scheidt S. P.*
Morse Z.
Bower D. M.
Achilles C.
Theiling B. P.
Illuminating the Invisible: A Planetary Exploration Strategy in a Lava Tube at Mauna Loa, Hawaii: Ultraviolet-Induced Fluorescence Imaging
[#2786]
An ultraviolet-induced fluorescence imaging system was designed, built, and field-tested in a lava tube to map the interior minerals and biological signatures.
An ultraviolet-induced fluorescence imaging system was designed, built, and field-tested in a lava tube to map the interior minerals and biological signatures.
Morse Z. R.*
Scheidt S. P.
Theiling B. P.
Achilles C.
Data in the Dark: In-Situ Augmented Reality Data Visualization of Ultraviolet-Induced Fluorescence at Mauna Loa Lava Tube Analog Field Site
[#2874]
In a lava tube / Our AR app lets you see / Data in the dark.
In a lava tube / Our AR app lets you see / Data in the dark.
Gonzales N. R.*
Hardgrove C. J.
Demonstration of Portable Terrestrial Cosmic-Ray Neutron Sensors
[#2981]
Using Earth hydrology methods we are developing a terrestrial analog for the search for water on other worlds!
Using Earth hydrology methods we are developing a terrestrial analog for the search for water on other worlds!
Wang H.*
Arroyo-Flores K.
Espejo P.
Zhu R.
Constructing Enhanced Digital Elevation Maps by Layering on the Spectral and Terramechanical Properties of Planetary Surface Analogues on the Big Island of Hawaiʻi
[#2029]
This research aims to construct an enhanced digital elevation model of the planetary surface analogues by layering on the spectral and terramechanical properties.
This research aims to construct an enhanced digital elevation model of the planetary surface analogues by layering on the spectral and terramechanical properties.
Zanetti M. R.*
Neish C. D.
Miller K.
Bremner P.
Hayward E.
et al.
Applications of Mobile LiDAR for Ultra-High Resolution and GPS-Denied Terrain Mapping in Planetary Analog Environments
[#2775]
A comparison of various mobile LiDAR sensor platforms shows the accuracy of ultra-high resolution mapping (<10 cm/pixel DEMs) in GPS-denied environments.
A comparison of various mobile LiDAR sensor platforms shows the accuracy of ultra-high resolution mapping (<10 cm/pixel DEMs) in GPS-denied environments.
Hoover S. L.*
Broad K. E.
Sadler B. O.
James P. B.
Robitallie B. A.
et al.
A Gravity Gradient Method for Calculating Bulk Density in Topographically Complex Areas
[#2857]
A new method is proposed to find absolute density of complex terrain using gravity gradients.
A new method is proposed to find absolute density of complex terrain using gravity gradients.
*presenter