Poster Session I - Tuesday 9th July 2019
| Order | 1-min Order | 1-min Presentation before what session | Part of Which Session | Title | Name | Affiliation | Status |
|---|---|---|---|---|---|---|---|
| A1 | I.1. | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | INES-a flexible and innovative payload for measuring radiation in the presence of ablation | Gilles BAILET | CentraleSupélec | |
| A2 | I.2 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | Laboratory-Based Thermal Shock Investigation of Heat Flux Sensors for the Mars 2020 Backshell | Ruth Miller | AMA Inc. at NASA Ames Research Center | |
| A3 | I.3 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | The LONSCAPE (Light Optical Nephelometer Sizer and Counter for Aero-sols in Planetary Environments) instrument: concept and application for the in situ detection of liquid and solid particles | Jean-Baptiste Renard | LPC2E-CNRS | |
| A4 | I.4 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | GeMini Plus: Preparing the Way for Future Planetary Elemental Composition Measurements Throughout the Solar System Using Gamma-Ray Spectroscopy | John Goldsten | Johns Hopkins Applied Physics Laboratory | |
| A5 | I.5 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | High Temperature Operation of Gallium Nitride Hall-Effect Sensors | Hannah Alpert | Stanford University | Student |
| A6 | I.6 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | An Energetic Particle Monitor for Ice Giant Atmospheric Probes | Nicolas Andre | IRAP, CNRS, UPS, CNES | |
| A7 | I.7 | Science Instrumentation, Experiments, and In-Situ Measurements | Science Instrumentation, Experiments, and In- Situ Measurements | Radio Science from Venus Probe/Lander Mission | Robert Frampton | Boeing | |
| A8 | II.1 | Mars Exploration | Mars Exploration | InSight's Reconstructed Aerothermal Environments | Jarvis Songer | Lockheed Martin Space | |
| A9 | II.2 | Mars Exploration | Mars Exploration | Reconstruction of the Performance of Mars InSight Lander's Supersonic Parachute | Ian Clark | Jet Propulsion Laboratory, California Institute of Technology | |
| A10 | II.3 | Mars Exploration | Mars Exploration | Landing Radar Performance Reconstruction for Entry, Descent, and Landing of the InSight Mars Lander | Dave Eckart | Lockheed Martin Space | |
| A11 | II.4 | Mars Exploration | Mars Exploration | InSight Entry, Descent and Landing Operations Overview | Julie Wertz Chen | Jet Propulsion Laboratory, California Institute of Technology | |
| A12 | II.5 | Mars Exploration | Mars Exploration | InSight Entry, Descent, And Landing Post-Flight Simulation Assessment | Carlie Zumwalt | NASA Langley Research Center | |
| A13 | II.6 | Mars Exploration | Mars Exploration | InSight Landing Safety Assessment During Approach | Evgeniy Sklyanskiy | Jet Propulsion Laboratory, California Institute of Technology | |
| A14 | II.7 | Mars Exploration | Mars Exploration | Trajectory Analysis of the ExoMars Schiaparelli Descent Probe | Emma Johnstone | Fluid Gravity Engineering | |
| A15 | II.8 | Mars Exploration | Mars Exploration | Challenges For Mars 2020 EDL At The Jezero Crater Landing Site | Erisa Stilley | Jet Propulsion Laboratory, California Institute of Technology | |
| A16 | II.9 | Mars Exploration | Mars Exploration | AMELIA: The EDL Science Experiment For The Entry And Descent Module Of The EXOMARS 2020 Mission | Francesca Ferri | CISAS - Univ. Padova | |
| A17 | II.10 | Mars Exploration | Mars Exploration | Modelling Sensitivities and Knowledge Gaps Associated with Mars-atmosphere Destructive Entry Applied to Planetary Protection | James Merrifield | Fluid Gravity Engineering | |
| A18 | II.11 | Mars Exploration | Mars Exploration | Aerothermal Analysis and Thermal Protection System [TPS] Design of the Mars Sample Retrieval Lander [SRL] Concept | Suman Muppidi | AMA Inc. at NASA Ames Research Center | |
| A19 | II.12 | Mars Exploration | Mars Exploration | ExoMars Rover and Surface Platform Mission: Technical Status | Andrew Ball | European Space Agency ESTEC | |
| A20 | III.1 | Sample Return to Earth | Sample Return to Earth | A Dynamic Topology Optimization Method for Sizing Internal Components of the Potential Mars Sample Return Earth Entry Vehicle | Cameron Grace | University at Buffalo | Student |
| A21 | III.2 | Sample Return to Earth | Sample Return to Earth | Implementing CubeSat Avionics Components to Full-Scale Capsule Return Missions | Zachary Hughes | San Jose State University | Student |
| A22 | III.3 | ||||||
| A23 | III.4 | Sample Return to Earth | Sample Return to Earth | Structural Analysis of Impact-Tolerant Latched Containment Mechanisms for Mars Sample Return | Emma Shupper | Jet Propulsion Laboratory, California Institute of Technology | |
| A24 | III.5 | Sample Return to Earth | Sample Return to Earth | High Velocity Impact Performance of a Dual Layer Thermal Protection System for the Mars Sample Return Earth Entry Vehicle | Benjamin Libben | NASA Ames Research Center | |
| A25 | IV.1 | Innovative Concepts for Exploration | Innovative Concepts for Exploration | TOUTATIS-Ex: A CubeSat testbed for entry experiments on Mars | Chloe Gentgen | CentraleSupélec | Student |
| A26 | IV.2 | Innovative Concepts for Exploration | Innovative Concepts for Exploration | Lunar Gateway LASC Module for Innovative Concepts for Exploration: A Laserpowered Apparatus for Satellite Charging | Brandon Biggs | San Jose State University | Student |
| A27 | IV.3 | Innovative Concepts for Exploration | Innovative Concepts for Exploration | Virtual Validation and Verification of the VaMEx Initative | Philipp Dittmann | University of Bremen | Student |
| A28 | IV.4 | Innovative Concepts for Exploration | Modeling, Simulation, Testing, and Validation | Aerodynamic heating estimation of deployable inflatable aeroshell for Martian penetrator entry system | Tomoya Kazama | Tokyo University of Science | Student |
| A29 | IV.5 | Innovative Concepts for Exploration | Modeling, Simulation, Testing, and Validation | Modal Analysis of the Orion Capsule Two Parachute System | Jing Pei | NASA Langley Research Center | |
| A30 | IV.6 | Innovative Concepts for Exploration | Modeling, Simulation, Testing, and Validation | Multi-Fidelity Modeling for Efficient Aerothermal Prediction of HIAD Configurations with Surface Scalloping | Mario Santos | Missouri University of Science and Technology | Student |
| A31 | IV.7 | Innovative Concepts for Exploration | Modeling, Simulation, Testing, and Validation | Deployable Mars Aero-Decelerators: Rib Deformation Modelling and Testing | Lisa Peacocke | Imperial College London / Airbus | Student |
| A32 | IV.8 | Innovative Concepts for Exploration | Modeling, Simulation, Testing, and Validation | Modeling Thermal and Fluid Response of MMOD Impacted Thermal Protection Systems | Olivia Schroeder | University of Minnesota | Student |
| A33 | IV.9 | Innovative Concepts for Exploration | Solar System Exploration II - Airless Planetary Satellites, Asteroids, and Comets | Enceladus Lander Mission Concept | Leora Peltz | Boeing |