Tag: Copernicus

  • GSA releases 2019 GNSS Market Report

    GSA releases 2019 GNSS Market Report

    Image: GSA
    Image: GSA

    The new GSA GNSS Market Report is now available for download. The report provides a comprehensive overview of the GNSS market and the global industry, as well as a focus on EGNSS differentiators and synergies with Copernicus, according to the publisher, the European GNSS Agency (GSA).

    Areas covered include:

    • A general overview of the GNSS market and a global industry overview.
      Analysis of macro-trends affecting GNSS, including climate change and the circular economy, big data, artificial intelligence, the silver economy, cyber security and the sharing economy.
    • A review of the main GNSS market segments in detail, including trends and developments, forecasts for future shipments, revenues and the GNSS installed base, and a look into GNSS user requirements.

    GNSS in Space. This year, the report features the “Editor’s Special: GNSS for NewSpace,” a section that introduces GNSS receivers in satellites and their relation to the evolving space sector.

    GNSS market monitoring is a key activity of the GSA. Market monitoring supports GNSS stakeholders in their planning and decision-making, and offers a clear tool to understand GNSS trends and evolutions.

    Since its launch in 2010, the GSA GNSS Market Report has become the go-to-source for information on the dynamic, global GNSS market segments and applications.

  • Copernicus Sentinel-3B delivers first images

    News from the European Space Agency

    Less than two weeks after it was launched, the Copernicus Sentinel-3B satellite has delivered its first images of Earth. Exceeding expectations, this first set of images include the sunset over Antarctica, sea ice in the Arctic and a view of northern Europe.

    One of the Copernicus Sentinel-3B’s first images featured Greenland. Captured on May 7, 2018, at 13:20 GMT (15:20 CEST), the image shows sea ice swirled into eddies caused by the wind and ocean currents.  The image was taken by the satellite’s ocean and land colour Instrument, which features 21 distinct bands, a resolution of 300 m and a swath width of 1270 km. The instrument can be used to monitor aquatic biological productivity and marine pollution, and over land it can be used to monitor the health of vegetation. (Image: ESA)
    One of the Copernicus Sentinel-3B’s first images featured Greenland. Captured on May 7, 2018, at 13:20 GMT (15:20 CEST), the image shows sea ice swirled into eddies caused by the wind and ocean currents. The image was taken by the satellite’s ocean and land colour Instrument, which features 21 distinct bands, a resolution of 300 m and a swath width of 1270 km. The instrument can be used to monitor aquatic biological productivity and marine pollution, and over land it can be used to monitor the health of vegetation. (Image: ESA)

    The very first image, captured on May 7 at 10:33 GMT (12:33 CEST), shows the transition between day and night over the Weddell Sea in Antarctica. The satellite also captured swirls of sea ice off Greenland on the same day. Another in this first set of images offers a rare cloud-free view of northern Europe.

    They were taken by the satellite’s ocean and land colour instrument, which features 21 distinct bands, a resolution of 300 m and a swath width of 1270 km. The instrument can be used to monitor aquatic biological productivity and marine pollution, and over land it can be used to monitor the health of vegetation.

    Josef Aschbacher, ESA’s Director of Earth Observation Programmes, said, “The launch of Sentinel-3B completed the first batch of Sentinels that we are delivering for Copernicus.

    “We finished the launch and early orbit phase in a record time and we are now getting on with the task of commissioning the satellite for service.

    “These first images from the ocean and land colour instrument already show how the satellite is set to play its role in providing a stream of high-quality environmental data to improve lives, boost the economy and protect our world.”

    The Copernicus Sentinel-3B satellite captured this rare cloud-free view of Northern Europe on May 8, 2018, at 09:33 GMT (11:33 CEST). Features over land and water can been seen clearly such as different types of land cover, snow and also a plume of phytoplankton in the North Sea. The image was taken by the satellite’s ocean and land color Instrument. (Image: ESA)
    The Copernicus Sentinel-3B satellite captured this rare cloud-free view of Northern Europe on May 8, 2018, at 09:33 GMT (11:33 CEST). Features over land and water can been seen clearly such as different types of land cover, snow and also a plume of phytoplankton in the North Sea. The image was taken by the satellite’s ocean and land color Instrument. (Image: ESA)

    The Sentinel-3B satellite lifted off from Russia on 25 April and joins it identical twin, Sentinel-3A, in orbit. This pairing of satellites increases coverage and data delivery for the European Union’s Copernicus environment programme.

    As the workhorse mission for Copernicus, the two satellites carry the same suite of instruments to systematically measure Earth’s oceans, land, ice and atmosphere.

    Over oceans, it measures the temperature, colour and height of the sea surface as well as the thickness of sea ice. These measurements are used, for example, to monitor changes in Earth’s climate and for more hands-on applications such as for monitoring marine pollution.

    Over land, this innovative mission monitors wildfires, maps the way land is used, checks vegetation health and measures the height of rivers and lakes.

    European Commissioner for Internal Market, Industry, Entrepreneurship and SMEs Elzbieta Bienkowska, said, “This new satellite will deliver valuable images of how our oceans and land are changing.

    “This will not only speed up the response to natural disasters, but also create new business opportunities. Earth observation is a larger market than you would think – a driver for research discoveries, a provider of highly skilled jobs and a developer of innovative services and applications.”

    One of the Copernicus Sentinel-3B’s first images featured Greenland. Captured on May 7, 2018, at 13:20 GMT (15:20 CEST), the image shows sea ice swirled into eddies caused by the wind and ocean currents, and was taken by the satellite’s ocean and land color Instrument. (Image: ESA)
    One of the Copernicus Sentinel-3B’s first images featured Greenland. Captured on May 7, 2018, at 13:20 GMT (15:20 CEST), the image shows sea ice swirled into eddies caused by the wind and ocean currents, and was taken by the satellite’s ocean and land color Instrument. (Image: ESA)

    Bruno Berruti, ESA’s Sentinel-3 Project Manager, said, “We are extremely pleased to see these first images, which show that the satellite is in good health.

    “ESA will spend the next five months carefully calibrating the instruments and commissioning the satellite for service before it is handed over to Eumetsat for routine operations.”

    During this commission phase the two Sentinel-3 satellites will be flown in a tandem formation, separated by about 30 seconds.

    Sentinel-3B will then be phased to reach its final position – flying in the same orbit, but adjusted to be separated by 140° with respect to Sentinel-3A.

    Once commissioned, ESA will hand over satellite operations to Eumetsat. It will then be managed jointly, with ESA generating the land products and Eumetsat the marine products for application through the Copernicus services.

    Alain Ratier, Director-General of Eumetsat, added, “The Sentinel-3 constellation establishes the European backbone of a space-based, global ocean-monitoring system.

    “These first images are the first demonstration that Sentinel-3B will deliver on its promise to usher in a new era for operational oceanography and flow-on benefits for human safety, businesses and industry.

    “They will amplify the benefits of the Sentinel 3 mission for ocean forecasting and the blue economy.”

    Sentinel-3B is the seventh Sentinel satellite launched for Copernicus. Each mission carries different state-of-the-art technology to deliver a stream of complementary imagery and data to monitor the environment.

  • SpaceDataHighway starts full Copernicus service

    The Airbus-operated SpaceDataHighway has begun regularly relaying data from the Sentinel-2A satellite, after the successful end of the commissioning period.

    SpaceDataHighway-WThis marks the start of the SpaceDataHighway service using all four Copernicus Sentinel satellites and the beginning of a new era for space-based imagery users.

    The first two sets of Earth-observing Copernicus Sentinels-1A and -1B and -2A and -2B are signed up to this service as SpaceDataHighway’s anchor customers under an agreement between the European Union and the European Space Agency (ESA) as owners of the Copernicus programme, and Airbus as the owner and commercial operator of SpaceDataHighway.

    Since using the SpaceDataHighway, the Sentinel-1 constellation has increased the amount of data it produces by about 50%. The service is also able to bring operational added-value to Sentinel-1 users by greatly improving the data timeliness for observations outside Europe. This is an important asset for users, especially when it comes to the routine monitoring of remote areas in the domain of maritime applications or assessment of natural disasters and first line response for emergency.

    The SpaceDataHighway is the world’s first “optical fibre in the sky” based on cutting-edge laser technology. It will be a unique system of satellites permanently fixed over a network of ground stations, with the first — EDRS-A — already in space.

    Each day, it can relay up to 40 terabytes of data acquired by observation satellites, UAVs and manned aircraft, at a rate of 1.8 gigabits per second.

    The relay satellites are designed to lock on to low-orbiting satellites via laser and collect their data as they travel thousands of kilometres below, scanning Earth. SpaceDataHighway then immediately sends the collected data down to Europe from its higher position hovering in geostationary orbit, acting as a go-between.

    This process allows the lower satellites to continuously downlink the information they are gathering, instead of having to store it until they travel over their own ground station. That way, they can send down more data, more quickly.

    The SpaceDataHighway is a public-private partnership between ESA and Airbus, with the laser terminals developed by Tesat-Spacecom and the DLR German Space Administration. EDRS-A, the first SpaceDataHighway relay satellite launched in January 2016, offers coverage from the American East Coast to India. A second satellite will be launched in 2018.

    It will double the system’s capacity and extend the coverage and redundancy of the system. Airbus is willing to expand the SpaceDataHighway with a third node, EDRS-D, to be positioned over the Asia-Pacific region.

  • Sentinel-2B satellite launched for Europe’s Copernicus program

    Artist's rendering of Sentinel-2B.
    Artist’s rendering of Sentinel-2B.

    The Sentinel-2B satellite was launched for the European Commission on Monday, March 6, at 10:49 p.m. local time from the Guiana Space Center (CSG), Europe’s Spaceport in Kourou, French Guiana.

    Following the successful launches of Sentinel-1A, Sentinel-2A and Sentinel-1B, the mission with Sentinel-2B marks the fourth satellite in the European Commission’s Copernicus Earth observation program to be orbited by Arianespace from the Guiana Space Center, within the scope of a contract with the European Space Agency (ESA).

    The Sentinel-2B Earth observation satellite mainly focuses on monitoring land masses and coastal zones around the world. It will be positioned in an orbit opposite that of Sentinel-2A to ensure optimum coverage and data delivery. The pair of Sentinel-2 satellites will cover the Earth’s entire surface in five days. This high frequency means they will capture brand-new views of the Earth, driving considerable progress in monitoring and predicting changes in vegetation and aquatic pollution.

    Sentinel-2B combines a multispectral, wide-swath, very-high-resolution optical imaging instrument with a dedicated platform developed by Airbus, a long-standing partner to Arianespace. It is the 61st Earth observation satellite to be launched by Arianespace.

    ESA’s Sentinel program includes six families of satellites:

    • Sentinel-1 will ensure data continuity with the ERS and Envisat radar satellites.
    • Sentinel-2 and Sentinel-3 are designed to help provide a better understanding of how climate change impacts our daily lives.
    • Sentinel-4 and Sentinel-5 are dedicated to meteorology and climatology, with a special focus on studying the composition of the Earth’s atmosphere.
    • Sentinel-6 will measure ocean topography, mainly for operational oceanography and climatology.

    This was the third launch of the year for Arianespace and the first in 2017 with the Vega light launcher. It also marked the ninth successful launch in a row for Vega, which made its debut at the Guiana Space Center in 2012.

  • What the ‘Brexit’ vote means for EU space programmes, Galileo

    What the ‘Brexit’ vote means for EU space programmes, Galileo

    A Kingdom Divided: Whither EU Space Programmes?

    Brexit-WGood grief, it has been a wild week or two. I was hoping that I wouldn’t need to talk about the incredible, excruciating UK referendum on European Union membership, but as the result has gone to the “leave” campaign, I feel obliged to pick over the wreckage.

    What does a UK exit from the EU mean for EU space programmes and Galileo in particular?

    First: UK involvement in the European Space Agency (ESA) should be unaffected by the exit of the UK from the European Union as this is a separate institution. However, one could argue that non-membership of the EU might diminish its voice and could require a higher financial contribution.

    Bids for the next Galileo satellite purchase contracts are due to be submitted in mid-July, and the European Commission has indicated that it will consider them purely on commercial terms. This is good news for the OHB System and Surrey Satellite Technology Limited (SSTL) consortium. And also for the Commission. If I were a betting man, I’d still wager the house on the incumbent consortium winning the contract to provide the remaining satellites required to provide a sustainable, 24/7 operational constellation for 1st generation Galileo. There would, in my opinion, be an unwarranted technical risk in doing anything else.

    However, for the next generation it is open season of course.

    Jewel in the Crown at Risk. But the real worry must be the Public Regulated Service (PRS). This is the unique feature of Galileo that is of great interest to civil and military authorities in Europe and beyond, due to its more robust encrypted signal and its potential anti-jamming and spoofing characteristics. Currently PRS will only available to EU Member States. In fact access to a PRS workshop at the European Space Solutions event (see below) was strictly “EU citizens only.” However, other countries, including the US and Norway, have indicated that they would love to be able to use it as well. No final decision on this has yet been made.

    The loss of the automatic right to access PRS would be damaging to the UK, and potentially to the full Galileo deployment timetable, as the country is currently host to the back-up Galileo Security Monitoring Centre (GSMC) — an essential part of PRS infrastructure — and I cannot see any part of the PRS infrastructure being left in a non EU Member State. PRS has been described as the “jewel in the Galileo crown,” but if the centre must be relocated then deployment of the full service could be delayed.

    In addition, the UK involvement in research and innovation activities around PRS may well be curtailed, even if other work on Galileo projects is not.

    The UK has been a leader in developing PRS applications. For example, Mark Dumville and colleagues at Nottingham Scientific Limited (NSL) have recently provided some very impressive demonstrations of cloud-based PRS applications including the first demonstration of the implementation of PRS authentication for an offender tag that was demonstrated using live Galileo (and GPS) signals. The demonstration provided real-time authentication flag generation, release and delivery to users. A second demonstration used cloud-based PRS in a proof-of-concept remote unattended, timing station where the primary user requirement was 100% confidence for the validity of signal. And a third demonstration illustrated the use of cloud-based PRS on a drone. “For users, demonstration of accreditation is key,” said Dumville when describing these results at the European Space Solutions event.

    Personally as a British citizen, and one who has spent the last 15 years in and out of the Brussels bubble, I see the EU referendum result as a national tragedy of epic proportions; and one that has been a long time in the making. Many global commentators are saying the UK has shot itself in the foot; sadly, in my opinion, it is much, much worse than that.

    United Europe

    The referendum news has certainly put a dampener on what I was hoping to be an optimistic, forward-looking article following the European Space Solution event in The Hague at the end of May. This was the fourth European Space Solutions conference and exhibition, attracting a large, global audience of policy-makers and industry players.

    At a press briefing just before the event kicked off on 30 May, and after an informal EU competitiveness ministerial council, Dutch minister for Economic Affairs Henk Kamp spoke about the ideas behind the forthcoming EU Space Policy. The policy, which should appear in the autumn/ fall, aims to elaborate a single and coherent European space strategy that will be the foundation of space programmes up to 2030.

    The policy will look to achieve three clear objectives:

    • to develop a strategy to ensure Europe maintains a strong and globally competitive space sector both upstream and in terms of use of data from space;
    • ensure independent access for Europe to space;
    • and maintain and upgrade the existing European space infrastructure — namely Galileo and Copernicus.

    Growth Vectors. Elżbieta Bieńkowska, the European Commissioner with responsibility for EU space programmes, indicated that the space policy would provide a “Coherent space vision for decades to come” and would be subject to public consultation. She was looking for “Maximum return on current programmes … and to respond to emerging needs in areas such as climate and security sectors.” The strategy will consider space-enabled solutions to societal challenges and as vectors for growth.

    She mentioned more than once that she is looking for long-term sustainability for the sector: a space sector that is able to adapt to disruptive technologies and maintain its competitive edge. My interpretation of this is that public money (from Europe) may not be as plentiful as previously, and the Commission will be looking for greater leverage of its tax Euros — that is, the private sector will need to invest more.

    Lowri Evans, Director-General for Internal Market, Industry, Entrepreneurship and SMEs, at the European Commission took up this theme. She saw huge opportunities as the cost of entry to the sector diminished, however private investment was still a problem. There was not enough in the EU and this must change. The Commission is aiming to create an environment for successful investment, she claimed.

    Jan Worner, the very positive Director-General of ESA said that “Space was indispensable” as an instrument for economic growth. It was also fascinating and inspiring. He felt it was also important that the different players in the EU space scene are working together for a “United Space in Europe.”

    The conference was also the venue for the official signing of the agreement for the future Galileo Reference Centre (GRC) that is to be established at Noordwijk in The Netherlands. The centre will play a crucial role in independently monitoring and reporting on Galileo’s performance and the quality of the system’s signal in space.

    Dual-Use Debate

    PRS was also a major talking point at the European Space Solution’s panel on ‘Space and Security.’ Despite the fact that Galileo is marketed as a civil controlled GNSS, “dual use” is becoming a potentially divisive area for debate. Marian-Jean Marinescu, MEP said there was a need for a common European defence and security strategy that includes securing all elements of the space value chain.

    Rini Goos from the European Defence Agency (EDA) said that the EU needed space systems to be able to “intervene successfully” and that space strategy needed to support Member State defence capabilities. This meant that the next generation of EU space systems must have dual-use capability. NATO is entrusted with external defence of the EU, but the Commission also needs to be able to provide defence, not just consume it, he concluded.

    Current Chairman of the Galileo Security Accreditation Board is a UK citizen – Jeremy Blyth. He said: “Space and Security, Security and Space. Whichever way we say it what is clear is that the two are inextricably linked together.” He believes that to ensure security it must be there “designed in from the beginning.” Security is an enabler, rather than a barrier, he claimed.

    He also believes that PRS gives the EU a real and competitive edge in secure positioning. However he indicated that there is a need to think deeply and have a rational debate about dual-use systems and in particular about the interface between civil and military use.

    Clearly there is a growing tension with regard to overtly military use of Galileo both now and in future generations of the system. Although a largely philosophical debate, given who in reality will be controlling and using PRS within many Member States, many European and national policy makers will want to retain the “purity” of Galileo as a global positioning system under fully civilian control.

    PRS Workshop

    Security was also a key feature of the PRS workshop organised by the Netherlands EU Presidency towards the end of European Space Solutions. Ger Nieuwpoort, Director of the Netherlands Space Office (NSO) reminded the audience that “For civil authorities, PRS provides the same level of security for Member States as the military in GPS.” While Christoph Kautz from the Commission said that the “Rationale for PRS was threats and user needs: better availability, high continuity, authentication, access control, exclusivity.”

    PRS offers defence in depth with a robust signal in space providing higher protection plus strong encryption on ranging codes, and the navigation and service messages. And the access to the technology is highly restricted.

    However some issues still need to be resolved. Bart Banning of the Netherlands Institute of Navigation asked ‘How will we use PRS?’ In terms of its use for protecting critical infrastructure, what if the owner of the infrastructure was a private company? Should it be granted access to PRS or have to make do with the Galileo Commercial Service aka PRS-lite?

    He also pointed out that PRS was no more protected against jamming than any other GNSS. And, currently, it was “not good for in-building, underground, or underwater.”

    He thought PRS could be a great time provider, but probably also need ground transmission, possibly via legacy radio towers. However, he saw the “killer app” for PRS being asset tracking of, for example, diamonds, VIPs or prisoners. He also agreed that for many EU countries the ministry of defence will be overseeing PRS services. “PRS is a good and unique addition to GNSS — but not the answer to all our needs.”

    Banning also highlighted the issue of commercial companies looking to buy LORAN / e-LORAN sites in Europe to provide a commercial service to back up GNSS. After the recent GPS timing glitch he said that the “timing community” had woken up to the vulnerability of their operations.

    Geospatial

    On a different tack, from 23–26 May the eighth edition of the Geospatial World Forum [www.geospatialworldforum.org] took place in Rotterdam, attracting professionals from the surveying and geoinformatic systems (GIS) sectors. I attended the event on 24 May and took part in a workshop that looked at the benefits of Galileo and EGNOS in geospatial applications in the context of the imminent launch of Galileo initial services.

    An industry survey undertaken by the GSA indicates that already more than 80% of GNSS receivers for surveying and mapping use are EGNOS-enabled, while 77% of geospatial reference network providers have enough information to upgrade Galileo and will be ready to provide a service by 2017. All good news. On the less positive side, more than 60% of professional surveyors did not know about EGNOS!

    The workshop also talked up the potential for synergies between Galileo GNSS and Copernicus Earth Observation (EO) systems — a topic of immense interest at the European Space Solutions as well. Hans Dufourmont from the European Environment Agency (EEA) highlighted the use of GNSS to track animal species and monitor migration paths when considering development opportunities. He saw a huge potential for synergies between geopositioning and surface imaging going forward.

    Maurice Barbieri, President of the Council of European Geodetic Surveyors (CLGE) also saw a “clear role for Galileo” in the surveying community with its potential ability to meet centimetre accuracy requirements much more than for EGNOS. He also speculated about the value of establishing a European Geoinformatic Agency that might coordinate the provision of European GNSS and EO data. He felt the private business community would appreciate such simplification.

    One presentation that caught my eye was from Laura van de Vyvere of M3 Systems in Belgium. She won the first-ever European Young Surveyor Prize with a paper taken from her Master’s thesis. The presentation addressed an innovative use of Galileo’s unique signal in space that is carried on four frequencies in the Open Service. Her work showed that the four frequencies enabled more precise phase measurements than with GPS so cycle slip is easier to detect and positioning data and reliability can be improved especially in harsh ionospheric conditions. The algorithm she developed could enable affordable multi-frequency receivers for mass-market applications, she claimed. An interesting idea.

    A bientôt, as they say in these parts.

     

  • USGS partners with European Space Agency on Copernicus Earth data

    The Sentinel satellites developed by ESA are designed to meet the operational needs of the Copernicus program. (ESA illustration)
    The Sentinel satellites developed by ESA are designed to meet the operational needs of the Copernicus program. (ESA illustration)

    The U.S. Geological Survey (USGS) and the European Space Agency (ESA) have established a partnership to enable USGS storage and redistribution of Earth observation data acquired by Copernicus program satellites.

    The ESA-USGS collaboration will serve scientific and commercial customers interested in the current conditions of forests, crops and water bodies across large regions and in the longer term environmental condition of the Earth. Data acquired by the European Union’s Sentinel-2A satellite launched in June 2015 are highly complementary to data acquired by USGS/NASA Landsat satellites since 1972.

    “Landsat and Sentinel data will weave together very effectively,” said Virginia Burkett, USGS Associate Director for Climate and Land Use Change. “Adding the image recurrence of two Sentinel-2 satellites to Landsats 7 and 8 will increase repeat multispectral coverage of the Earth’s land areas to every 3 to 4 days. With more frequent views of the Earth, we will significantly improve our ability to see and understand changes taking place across the global landscape.”

    The agreement is part of a broader understanding between the European Union and three U.S. federal science agencies — NASA, the National Oceanic and Atmospheric Administration (NOAA), and USGS — that was signed in October 2015. All parties are committed to the principle of full, free and open access to Earth observation satellite data produced by the European Union’s Sentinel program and by the respective U.S. agencies. An ESA article further describes the cross-Atlantic collaboration.

    “Free and open access to Landsat and Sentinel-2 data together will create remarkable economic and scientific benefits for people around the globe,” said Suzette Kimball, director of the U.S. Geological Survey. “At the outset of our partnership we can only imagine the synergies between our two perspectives from space. But I’m confident that the final product of our partnership will be an enriched knowledge of our planet.”

    Sentinel data are available at no cost from the Copernicus Scientific Data Hub. Additionally, in order to expedite data delivery around the globe, users may also download both Sentinel-2 and Landsat data at no charge in a familiar digital environment from USGS access systems such as EarthExplorer.

    Right now, only selected Sentinel data are available from the USGS in an early testing phase. Timely access to all Sentinel data will follow as the procedures for data transfer, user access and data delivery continue to be optimized at the USGS Earth Resources Observation and Science (EROS) Center.

    The MultiSpectral Instrument (MSI) sensor on board Sentinel 2A acquires 13 spectral bands that parallel and contrast to data acquired by the USGS Landsat 8 Operational Land Imager (OLI) and Landsat 7 Enhanced Thematic Mapper Plus (ETM+). Unlike the Sentinel-2 satellites, Landsat satellites also include a capability to collect thermal infrared data which is used in a variety of water and agricultural monitoring applications. NASA has published an online comparison of Sentinel-2A and Landsat bandwidths.

    For technical details such as data availability, geographic coverage, acquisition frequency and resolution, visit the Copernicus and Landsat websites.

    The Landsat program is a joint effort of USGS and NASA. First launched by NASA in 1972, the Landsat series of satellites has produced the longest, continuous record of Earth’s land surface as seen from space. Landsat data were made available to all users free of charge by the U.S. Department of the Interior and USGS in 2008.

  • Copernicus Masters Competition Submissions Due by July 13

    The Coperinicus Masters Cup Photo: Anwendungszentrum GmbH
    The Coperinicus Masters Cup
    Photo: Anwendungszentrum GmbH

    Copernicus Masters submissions of ideas, applications or business concepts involving innovative uses of Earth observation data are due by July 13. Along with cash prizes, the winners will gain access to an international network, corresponding data, start-up funding and other support valued at more than €300,000 ($322,444) total.

    The amount of data produced by Copernicus, the European Earth observation program, and its Sentinel satellites opens the door to products and applications in a wide array of business sectors. The European Space Agency (ESA) and Anwendungszentrum GmbH Oberpfaffenhofen (AZO) have thus initiated the Copernicus Masters competition to aid visionary entrepreneurs in bringing their innovations to market.

    “Start-ups and SMEs in particular stand to benefit from the virtually limitless scope of the data Copernicus provides,” said Prof Dr Volker Liebig, director of Earth observation programs and head of the European Space Research Institute (ESRIN), ESA. “The ideas submitted to previous editions of the Copernicus Masters have already demonstrated this to impressive effect, as has the constantly growing number of companies that are developing products and services based on Earth observation data in ESA’s business incubation program.”

    These companies operate in a diverse range of fields, where they address subjects such as resource efficiency in agriculture, construction and renewable energy. The Copernicus Masters also is looking for new services and products in forward-thinking segments such as big data, cloud computing, crowdsourcing, data visualisation and mobile applications, to name a few.

    In this year’s edition, prizes will be awarded in topic-specific challenges sponsored by partners, including: ESA, the German Aerospace Center (DLR), T-Systems International GmbH, Satellite Applications Catapult Ltd., Greece’s National Cadastre and Mapping Agency (NCMA), CloudEO AG and European Space Imaging GmbH. The new University Challenge specifically addresses students and research assistants around the world.

    “We and our partners are offering the participants space for innovation in areas that are already shaping the future — the Internet of Things (IoT), Industry 4.0, smart cities and renewable energy, for example,” said Thorsten Rudolph, AZO managing director. “We want to support them in realising their creative solutions to these global challenges.”

    Research and industry experts will select the winner of each challenge. The overall winner and 2015 Copernicus Master will receive, along with their challenge prize, €20,000 ($21,478) in cash and a satellite data package worth a further €60,000 ($64,434), which is being provided with the financial support of the European Commission.

    “Taking part in the Copernicus Masters gave us the chance to make some key contacts and gather valuable feedback,” said John Smedegaard, a co-founder of Ceptu, which won the CloudEO Farming Challenge in 2014. “The whole process was a huge help in advancing our idea and developing it into a commercial product through our new start-up.”

    All of the winners will be announced this fall and recognized at an awards ceremony.

    For details on this year’s prizes, partners and terms of participation, view the event website.