Mostrando resultados 10 a 24 de 24
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Derechos | Vista previa | Fecha de publicación | Título | Autor(es) |
| ![Fully interactive and refined resolution sumulations of the Martian dust cycle by the MarsWRF model.pdf.jpg](/jspui/retrieve/45798e86-62c4-463e-b06e-8a473685a204/Fully%20interactive%20and%20refined%20resolution%20sumulations%20of%20the%20Martian%20dust%20cycle%20by%20the%20MarsWRF%20model.pdf.jpg) | 25-ago-2020 | Fully Interactive and Refined Resolution Simulations of the Martian Dust Cycle by the MarsWRF Model | Gebhardt, C.; Abuelgasim, A.; Fonseca, R. M.; Martín Torres, Javier; Zorzano, María Paz |
| ![acceso-restringido.pdf.jpg](/jspui/retrieve/f0ebcda8-7ded-43b4-b66e-8cf22025dcba/acceso-restringido.pdf.jpg) | 28-jul-2021 | Measuring electrical conductivity to study the formation of brines under martian conditions | Nazarious, Miracle Israel; Ramachandran, A. V.; Zorzano, María Paz; Martín Torres, Javier |
| ![Supplement Metabolt, an in.situ instrument to characterize the metabolic activity of microbial soil ecosystems using electrochemical and gaseous signatures.pdf.jpg](/jspui/retrieve/77aa9cfb-7024-4400-a3c0-9bc9ef13611d/Supplement%20Metabolt%2c%20an%20in.situ%20instrument%20to%20characterize%20the%20metabolic%20activity%20of%20microbial%20soil%20ecosystems%20using%20electrochemical%20and%20gaseous%20signatures.pdf.jpg) | 11-ago-2020 | Metabolt: An In-Situ Instrument to Characterize the Metabolic Activity of Microbial Soil Ecosystems Using Electrochemical and Gaseous Signatures | Nazarious, Miracle Israel; Zorzano, María Paz; Martín Torres, Javier |
| ![1-s2.0-S246806722030078X-main.pdf.jpg](/jspui/retrieve/1ce495c7-2287-4549-9f0f-78effe57fcad/1-s2.0-S246806722030078X-main.pdf.jpg) | 12-abr-2021 | PACKMAN – A portable instrument to investigate space weather | Mathanlal, Thasshwin; Vakkada Ramachandran, A.; Zorzano, María Paz; Martín Torres, Javier |
| ![Prebiotic chemistry in neutral-reduce-alkaline gas-liquid interfaces.pdf.jpg](/jspui/retrieve/c2245f0b-9f78-4c5f-9bd5-79ecf40636ac/Prebiotic%20chemistry%20in%20neutral-reduce-alkaline%20gas-liquid%20interfaces.pdf.jpg) | 13-feb-2019 | Prebiotic chemistry in neutral/reduced-alkaline gas-liquid interfaces | Mompeán, Cristina; Roig Marín-Yaseli, Margarita; Espigares, Patricia; González Toril, Elena; Zorzano, María Paz; Ruiz Bermejo, Marta |
| ![Pressure optimized powEred respirator (proper)- A miniaturized wearable cleanroom and biosafety system for aerially transmitted viral infections such as COVID 19.pdf.jpg](/jspui/retrieve/9d6ac793-465e-4a52-83b0-65b5d1910346/Pressure%20optimized%20powEred%20respirator%20%28proper%29-%20A%20miniaturized%20wearable%20cleanroom%20and%20biosafety%20system%20for%20aerially%20transmitted%20viral%20infections%20such%20as%20COVID%2019.pdf.jpg) | 6-oct-2020 | Pressure Optimized PowEred Respirator (PROPER): A miniaturized wearable cleanroom and biosafety system for aerially transmitted viral infections such as COVID-19 | Nazarious, Miracle Israel; Mathanlal, Thasshwin; Zorzano, María Paz; Martín Torres, Javier |
| ![Quantifiying the Congruence between Air and Land Surface Temperatures.pdf.jpg](/jspui/retrieve/0e2f7f86-7569-42a0-b7de-59ea0b435d99/Quantifiying%20the%20Congruence%20between%20Air%20and%20Land%20Surface%20Temperatures.pdf.jpg) | 4-dic-2019 | Quantifying the Congruence between Air and Land Surface Temperatures for Various Climatic and Elevation Zones of Western Himalaya | Singh, S.; Bhardwaj, A.; Singh, A.; Sam, L.; Shekhar, M.; Martín Torres, Javier; Zorzano, María Paz |
| ![Seasonal variations in Atmospheric composition as measured in Gale Crater Mars.pdf.jpg](/jspui/retrieve/f57df03f-48ae-4980-aa10-5b0892028fe2/Seasonal%20variations%20in%20Atmospheric%20composition%20as%20measured%20in%20Gale%20Crater%20Mars.pdf.jpg) | 12-nov-2019 | Seasonal Variations in Atmospheric Composition as Measured in Gale Crater, Mars | Trainer, M. G.; Wong, M. H.; McConnochie, T. H.; Franz, H. B.; Atreya, S. K.; Conrad, Pamela G.; Lefèvre, F.; Mahaffy, Paul R.; Malespin, C. A.; Manning, H. L. K.; Martín Torres, Javier; Martínez, G. M.; McKay, C. P.; Navarro González, R.; Vicente Retortillo, Á.; Webster, C. R.; Zorzano, María Paz |
| ![Small Lava caves as possible exploratory targets on Mars- analogies drawn from UAV imaging of an icelandic lava field.pdf.jpg](/jspui/retrieve/577e2743-9a9e-436e-89ca-a682903c8b39/Small%20Lava%20caves%20as%20possible%20exploratory%20targets%20on%20Mars-%20analogies%20drawn%20from%20UAV%20imaging%20of%20an%20icelandic%20lava%20field.pdf.jpg) | 19-jun-2020 | Small lava caves as possible exploratory targets on Mars: Analogies drawn from UAV imaging of an Icelandic lava field | Sam, Lydia; Bhardwaj, Anshuman; Singh, Shaktiman; Martín Torres, Javier; Zorzano, María Paz; Ramírez Lúque, Juan Antonio |
| ![Space Environmental Chamber for Planetary Studies.pdf.jpg](/jspui/retrieve/812d9f34-3567-4c1b-8c89-0776abe9e37e/Space%20Environmental%20Chamber%20for%20Planetary%20Studies.pdf.jpg) | 18-jul-2020 | Space Environmental Chamber for Planetary Studies | Ramachandran, Abhilash Vakkada; Nazarious, Miracle Israel; Mathanlal, Thasshwin; Zorzano, María Paz; Martín Torres, Javier |
| ![subsurface-robotic-exploration-for-geomorphology-astrobiology-and-mining-during-minar6-campaign-boulby-mine-uk-part-i-rover-development.pdf.jpg](/jspui/retrieve/6ec1b4ee-ab95-43da-aed8-a95d38653515/subsurface-robotic-exploration-for-geomorphology-astrobiology-and-mining-during-minar6-campaign-boulby-mine-uk-part-i-rover-development.pdf.jpg) | 5-abr-2020 | Subsurface robotic exploration for geomorphology, astrobiology and mining during MINAR6 campaign, Boulby Mine, UK: part I (Rover development). | Mathanlal, Thasshwin; Bhardwaj, A.; Vakkada Ramachandran, A.; Zorzano, María Paz; Martín Torres, Javier; Cockell, C. S.; Edwards, T. |
| ![Subsurface robotic exploration for geomorphology, astrobiology and mining during MINAR6 campaing, Boulby Mine, UK part II.pdf.jpg](/jspui/retrieve/9568c042-618c-4b1b-8534-d6fa209c2799/Subsurface%20robotic%20exploration%20for%20geomorphology%2c%20astrobiology%20and%20mining%20during%20MINAR6%20campaing%2c%20Boulby%20Mine%2c%20UK%20part%20II.pdf.jpg) | 7-ene-2021 | Subsurface robotic exploration for geomorphology, astrobiology and mining during MINAR6 campaign, Boulby Mine, UK: part II (Results and Discussion) | Mathanlal, Thasshwin; Bhardwaj, A.; Vakkada Ramachandran, A.; Zorzano, María Paz; Martín Torres, Javier; Cockell, C. S. |
| ![JGR Planets - 2023 - Mart nez - Surface Energy Budget Albedo and Thermal Inertia at Jezero Crater Mars as Observed From.pdf.jpg](/jspui/retrieve/fc80d83a-2726-4b6f-b5ce-c2f153d34963/JGR%20Planets%20-%202023%20-%20Mart%20nez%20-%20Surface%20Energy%20Budget%20%20Albedo%20%20and%20Thermal%20Inertia%20at%20Jezero%20Crater%20%20Mars%20%20as%20Observed%20From.pdf.jpg) | feb-2023 | Surface Energy Budget, Albedo, and Thermal Inertia at Jezero Crater, Mars, as Observed From the Mars 2020 MEDA Instrument | Martínez, G. M.; Sebastián, E.; Vicente Retortillo, Á.; Smith, Michael; Johnson, J. R.; Fischer, E.; Savijärvi, H.; Toledo, D.; Hueso, R.; Mora Sotomayor, L.; Gillespie, H.; Munguira, A.; Sánchez Lavega, A.; Lemmon, M. T.; Gómez, F.; Polkko, J.; Mandon, Lucía; Apéstigue, V.; Arruego, I.; Ramos, M.; Conrad, Pamela G.; Newman, C. E.; De la Torre Juarez, M.; Jordan, Francisco; Tamppari, L. K.; Mcconnochie, T. H.; Harri, Ari-Matti; Genzer, M.; Hieta, M.; Zorzano, María Paz; Siegler, M.; Prieto Ballesteros, O.; Molina, A.; Rodríguez Manfredi, J. A. |
| ![The dynamic atmospheric and aeolian environment of Jezero crater, Mars.pdf.jpg](/jspui/retrieve/01d8a406-d403-4f79-8406-35d63992fe1d/The%20dynamic%20atmospheric%20and%20aeolian%20environment%20of%20Jezero%20crater%2c%20Mars.pdf.jpg) | 25-may-2022 | The dynamic atmospheric and aeolian environment of Jezero crater, Mars | Newman, C. E.; Hueso, R.; Lemmon, M. T.; Munguira, A.; Vicente Retortillo, Á.; Apéstigue, V.; Martínez, G. M.; Toledo, D.; Sullivan, R.; Herkenhoff, K. E.; De la Torre Juárez, M.; Richardson, M. I.; Stott, A. E.; Murdoch, N.; Sánchez Lavega, A.; Wolff, M. J.; Arruego, I.; Sebastián, E.; Navarro, Sara; Gómez Elvira, J.; Tamppari, L. K.; Smith, M. D.; Lepinette, A.; Viúdez Moreiras, Daniel; Harri, Ari-Matti; Genzer, M.; Hieta, M.; Lorenz, R. D.; Conrad, Pamela G.; Gómez, F.; Mcconnochie, T. H.; Mimoun, D.; Tate, C.; Bertrand, T.; Belli, J. F.; Maki, Justin N.; Rodríguez Manfredi, J. A.; Wiens, R. C.; Chide, B.; Maurice, S.; Zorzano, María Paz; Mora, L.; Baker, M. M.; Banfield, D.; Pla García, J.; Beyssac, O.; Brown, Adrian Jon; Clark, B.; Montmessin, F.; Fischer, E.; Patel, P.; Del Río Gaztelurrutia, T.; Fouchet, T.; Francis, R.; Guzewich, S. D. |
| ![acceso-restringido.pdf.jpg](/jspui/retrieve/da8c24cb-5b78-4cc4-b692-60bb05959333/acceso-restringido.pdf.jpg) | 17-mar-2021 | The HABIT (HabitAbility: Brine Irradiation and Temperature) environmental instrument for the ExoMars 2022 Surface Platform | Martín Torres, Javier; Zorzano, María Paz; Soria Salinas, Álvaro; Israel Nazarious, Miracle; Konatham, Samuel; Mathanlal, Thasshwin; Vakkada Ramachandran, A.; Ramírez Luque, Juan Antonio; Mantas Nakhai, R. |