ESA Science & Technology - Publication Archive
Download this interactive media kit to learn more about the launch of Solar Orbiter in February 2020 and the science goals of the mission. Solar Orbiter will perform unprecedented close-up observations of the Sun and from high-latitudes, providing the first images of the uncharted polar regions of the Sun, and investigating the Sun-Earth connection.
- How to use this media kit
- Event programme
- How to follow the launch online
- What’s new
- Answering the big questions
- Operating in extreme environments
- Launch and deployment sequence
- Journey around the Sun
- Extreme exploration with Solar Orbiter and Parker Solar Probe
- Anatomy of the Sun
- Missions studying the Sun
- Meet the Sun
- Solar Orbiter team
- Selected multimedia
- Media services
To open the pdf file (16 MB) click on the image or on the link to publication below.
Download this interactive media kit to learn more about the launch of CHEOPS on 17 December 2019 and the science goals of the mission. CHEOPS, the CHaracterising ExOPlanet Satellite, is ESA's first mission dedicated to the study of exoplanets. It will observe bright stars that are already known to host planets, measuring minuscule brightness changes due to the planet's transit across the star's disc.
Update 20 Dec: A new version of the media kit was released containing the updated launch date, 18 December 2019, on p3 and p18. A typo was also corrected on p17.
- Event programme
- Key messages
- CHEOPS science themes
- CHEOPS: an exoplanet follow-up mission
- Exoplanet detection methods
- Exoplanets discoveries
- Examples of planetary systems
- Characterising exoplanets with CHEOPS
- CHEOPS observing programmes
- What are exoplanets made of?
- Open questions: How do planets form?
- Open questions: How do planets evolve?
- High photometric stability and precision
- Where is CHEOPS?
- Launch details and timeline
- CHEOPS team and consortium
- Selected images
- Selected videos
- Media services
To download the pdf file (25 MB) click on the image or on the link to publication below.
Solar Orbiter is a mission dedicated to solar and heliospheric physics. It will address big questions in Solar System science to help us understand how the Sun creates and controls the heliosphere, the giant bubble of plasma that surrounds the whole Solar System and influences Earth and the other planets within it. The spacecraft will provide close-up, high-latitude observations of the Sun to gain new information about the solar wind, the heliospheric magnetic field, solar energetic particles, transient interplanetary disturbances and the Sun's magnetic field.
- Living with a star
- Exploring our Sun
- Anatomy of our Sun
- Preparing for extreme environments
- How Solar Orbiter will study the Sun
- Launching and operating Solar Orbiter
- Teamwork with Parker Solar Probe
- An international enterprise
Document reference: ESA-SCI-F-ESTEC-RP-2019-001
The EPIG (ESA Probe for Investigation of the Giants) CDF study explored the feasibility of a European "stand-alone" mission to the Ice Giants (or Saturn as back-up). It corresponds to an ESA internal assessment of the capabilities to use only European technology to explore the outer planets.
The study was carried out by an interdisciplinary team of experts from ESA in eight sessions, starting with a kick-off on 28 March 2019 and ending with an Internal Final Presentation on 9 May 2019. This is a summary report of the EPIG CDF study. The full CDF study report will be made available at a later date.
This brochure summarises the Herschel mission and its science achievements to date, capturing the basis for the science yet to come and its enduring legacy.
The European Space Agency's Herschel Space Observatory flew the largest single mirror ever built for a space telescope. At 3.5-metres in diameter the mirror collected long-wavelength radiation from some of the coldest and most distant objects in the Universe. In addition, Herschel was the only space observatory to cover a spectral range from the far infrared to sub-millimetre.
The Herschel mission leaves behind a lasting legacy in the form of a treasure trove of data, thousands of scientific papers, and a new generation of astronomers whose professional lives have been formed by working on this remarkable endeavour.
- The other half of the light
- Tools of the trade
- The Herschel mission
- Gathering the light
- The infrared Universe
- Engines of star formation
- From dust to planets
- The water trail
- An international enterprise
- A lasting legacy
CHEOPS is ESA's CHaracterising ExOPlanet Satellite. It is the first mission dedicated to studying bright, nearby stars that are already known to host exoplanets, in order to make high-precision observations of the planet's size as it passes in front of its host star. It will focus on planets in the super-Earth to Neptune size range, with its data enabling the bulk density of the planets to be derived – a first-step characterisation towards understanding these alien worlds.
- Why exoplanets
- Enter CHEOPS
- How CHEOPS will characterise exoplanets
- Designing a planet watcher
- A European collaboration
- Welcome onboard!
The scale of groundwater upwelling on Mars, as well as its relation to sedimentary systems, remains an ongoing debate. Several deep craters (basins) in the northern equatorial regions show compelling signs that large amounts of water once existed on Mars at a planet-wide scale. The presence of water-formed features, including fluvial Gilbert and sapping deltas fed by sapping valleys, constitute strong evidence of groundwater upwelling resulting in long term standing bodies of water inside the basins. Terrestrial field evidence shows that sapping valleys can occur in basalt bedrock and not only in unconsolidated sediments. A hypothesis that considers the elevation differences between the observed morphologies and the assumed basal groundwater level is presented and described as the "dike-confined water" model, already present on Earth and introduced for the first time in the Martian geological literature. Only the deepest basins considered in this study, those with bases deeper than −4000 m in elevation below the Mars datum, intercepted the water-saturated zone and exhibit evidence of groundwater fluctuations. The discovery of these groundwater discharge sites on a planet-wide scale strongly suggests a link between the putative Martian ocean and various configurations of sedimentary deposits that were formed as a result of groundwater fluctuations during the Hesperian period. This newly recognized evidence of water-formed features significantly increases the chance that biosignatures could be buried in the sediment. These deep basins (groundwater-fed lakes) will be of interest to future exploration missions as they might provide evidence of geological conditions suitable for life.
Document reference: CDF-187(C)
A mission to the Ice Giants (Neptune and Uranus) will be among the ones examined by the next Planetary Sciences Decadal, which also fits with the potential launch opportunity, with a Jupiter swing-by, that would allow to reach both planets by launching in the early 2030s.
ESA is exploring potential contributions to a NASA-led mission to the ice giants aimed at understanding the interior structure and bulk composition of the planet(s), including isotopes and noble gases.
ESA and NASA agreed to study a palette of possible configurations of varying cost to ESA and complexity, keeping in mind the need for clear interfaces.
It is important to keep this background in mind and remember that this study is not analysing a specific science proposal but trying to understand potential contributions following a top-down approach.
Requested by SCI-FM and funded by GSP, the M* (Ice Giants) study was set to analyse the feasibility of "stand-alone" elements provided by ESA to be part of the NASA-led mission to Uranus, Neptune and their moons (M-class mission budget but not proposed following a Cosmic Vision Programme Call, hence M*).
The internal Phase 0 study of the M5 mission candidate THESEUS has been performed at ESA's Concurrent Design Facility (CDF) between June and November 2018. An internal final presentation has been prepared by the CDF Team, summarizing the outcome of the Phase 0 study. This presentation can be downloaded as a PDF (10 MB) by clicking the image to the right, or the 'link to publication' link below.
The internal Phase 0 study of the M5 mission candidate SPICA has been performed at ESA's Concurrent Design Facility (CDF) between June and November 2018. An internal final presentation has been prepared by the CDF Team, summarizing the outcome of the Phase 0 study. This presentation can be downloaded as a PDF (6 MB) by clicking the image to the right, or the 'link to publication' link below.
The internal Phase 0 study of the M5 mission candidate EnVision has been performed at ESA's Concurrent Design Facility (CDF) between June and November 2018. An internal final presentation has been prepared by the CDF Team, summarizing the outcome of the Phase 0 study. This presentation can be downloaded as a PDF (10 MB) by clicking the image to the right, or the 'link to publication' link below.