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Over the last few months, a chunk of Antarctica’s Larsen C ice shelf has been hanging on precariously as a deep crack cut across the ice. Witnessed by the Copernicus Sentinel-1mission, a lump of ice more than twice the size of Luxembourg has now broken off, spawning one of the largest icebergs on record and changing the outline of the Antarctic Peninsula forever.
Over the last few months, a chunk of Antarctica’s Larsen C ice shelf has been hanging on precariously as a deep crack cut across the ice. Witnessed by the Copernicus Sentinel-1 mission, a lump of ice more than twice the size of Luxembourg has now broken off, spawning one of the largest icebergs on record and changing the outline of the Antarctic Peninsula forever.
Media are invited to see the Sentinel-5 Precursor satellite on 20 July at Airbus in Stevenage, UK, before it is shipped to Russia for launch. As well as viewing this state-of-the-art Copernicus satellite in the cleanroom, media representatives will be able to learn how the mission will revolutionise air-quality monitoring.
Media are invited to see the Sentinel-5 Precursor satellite on 20 July at Airbus in Stevenage, UK, before it is shipped to Russia for launch. As well as viewing this state-of-the-art Copernicus satellite in the cleanroom, media representatives will be able to learn how the mission will revolutionise air-quality monitoring.
The GSA discussed how Galileo helps the mapping and surveying sector harmonise geospatial data during the EUREF 2017 Symposium in Wroclaw, Poland.
EUREF, the International Association of Geodesy (IAG) Reference Frame Sub-Commission for Europe, is dedicated to the definition, realisation and maintenance of the European Geodetic Reference Systems. Included in this mission is the development and maintenance of the EUREF GNSS Permanent Network (EPN), which is a ground-based GNSS infrastructure for scientific and practical applications in positioning and navigation.
“Through the INSPIRE Directive, the European Union requires that geospatial data be harmonised across Europe via a common coordinate system,” says Professor Alessandro Caporali of Italy’s University of Padova. “GNSS based satellite positioning is, to date, the most efficient and accurate technique for consistently defining coordinates on a regional and global scale.”
EUREF provides standards and guidelines to European National Mapping Authorities in order to harmonise the definition and adoption of national coordinate reference systems.
But of course all of these benefits can only be used if the geodetic community is ‘Galileo ready’. According to the GSA’s GNSS User Technology Report, surveying, mapping and construction (both person-based and machine controlled) together accounted for 95% of all GNSS device shipments in 2016. “In the coming decade, the total amount of shipments is expected to reach 815,000 units worldwide, representing almost a four-fold increase over 2015,” said GSA Head of Market Development Gian Gherardo Calini, speaking at the recent EUREF 2017 Symposium in Wroclaw, Poland.
Main drivers and trends:
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According to Calini, multi-constellation and multi-frequency are widely adopted to fulfil the sector’s stringent accuracy requirements. A recent GSA survey of the sector showed that 77% of responding reference networks indicated that they had enough information to integrate Galileo into their systems, while 41% say they are already fully prepared to use Galileo signals. In total, 78% of reference networks have plans to upgrade to Galileo this year.
Currently, most Galileo-enabled chipsets and receivers are found in the automotive, consumer, agriculture and surveying sectors. For example, in the high-precision market, all the leading receiver developers have integrated Galileo into their products, including Trimble, Leica- Geosystems, Javad, TopCon, Septentrio and NovAtel.
Media note: This feature can be republished without charge provided the European GNSS Agency (GSA) is acknowledged as the source at the top or the bottom of the story. You must request permission before you use any of the photographs on the site. If you republish, we would be grateful if you could link back to the GSA website (http://www.gsa.europa.eu).
With the Copernicus Sentinel-3A satellite fully fledged and its data freely available, the task of monitoring and understanding our changing planet has been made that much easier. Seeing the effect spring has on our plant life is just one of its many uses.
As home to over 600 million inhabitants, many technically skilled experts in the area of satellite technology, and a fast-growing economy, South East Asia is a hotspot for global business – and GNSS is no exception. In fact, thanks to its unique geographic position, where it is able to receive all GNSS signals (and even some EGNOS signals), South East Asia is developing into a regional ‘GNSS Valley’.
To help ensure European GNSS’ spot at this table, the Horizon 2020-funded BELS project conducts a range of coordinated activities to raise awareness and build capacities for the exploitation of E-GNSS technologies in South East Asia. The BELS consortium brings together 12 European, Asian and Australian partners, including European companies with a presence in the region, as well as leading universities. Together, these partners concentrate on three core objectives:
One of the project’s core focuses is to promote Galileo and how it can benefit the region. This work is particularly important as the region lacks its own satellite navigation capabilities and is thus dependent on other national or regional systems. “There’s a lot of competition coming from Russia, China and Japan – each looking to tie South East Asia to their GNSS system,” says Matteo Vannucchi from the BELS coordination team. “However, the majority of these systems are military-based or controlled, which of course raises concerns for users in the region.”
According to Vannucchi, because Galileo is the only civil-operated GNSS programme, it has a unique advantage in the region. “The potential here is substantial,” he says. For example, the Vietnamese government has issued a regulation that requires all vehicles used for transporting passengers or goods to be equipped with ‘black boxes’ capable of relaying data – which will come from GNSS technology. “Many of these local technology companies are looking for suitable providers, but tend to look towards the US, Japan and China instead of European ones,” adds Vannucchi.
Core to this job is the NAVIS Centre, a dedicated GNSS R&D centre located in Hanoi, Vietnam. The centre’s mission is to act as a linking entity between Europe and South East Asia within the GNSS sector. Specifically, it aims to promote cooperation between EU and South East Asian actors, promote European GNSS technology, and reinforce international collaboration among players. To achieve this, the centre conducts research, training and awareness initiatives in collaboration with a growing network of international institutions from Asia-Pacific and Europe. NAVIS also provides support to regional policy makers on GNSS technical issues relating to the development of regulations and standards.
“Our core function is to develop satellite navigation in South East Asia,” says Vannucchi. “Together, we are conducting ongoing research and coordinating workshops and conferences that give these actors an opportunity to come together and share their findings.”
The NAVIS facility is also available for both testing and research activities and serves as a hub for establishing new links with regional GNSS stakeholders. NAVIS is particularly well suited for testing a receiver’s multi-constellation function, and several EU receiver manufacturers have taken up the opportunity to co-locate their receivers at the centre.
To encourage more companies to take advantage of this opportunity, the NAVIS centre has issued calls for expression of interest, where European GNSS companies can receive vouchers to visit the NAVIS Centre. “NAVIS is the perfect place to test receivers and devices, not only because of how one can receive all GNSS signals here, but also because of the unique phenomena of ionosphere found here,” says Vannucchi. “In general, if it works at NAVIS, it will work anywhere in the world.”
The purpose of these visits is to provide a company with a chance to experience the centre and all that it has to offer in terms of serving as a testbed for their GNSS equipment and solutions prior to making a commitment to relocate some of their activities here. Whereas the first call was to invite companies to come and see if NAVIS was a good fit for them, a subsequent second call gives these companies an opportunity to apply to receive vouchers to conduct their testing at the centre and network with stakeholders in Southeast Asia.
Last year, seven European companies visited NAVIS and started planning their test campaigns. One such company was UK-based NSL, who has developed a GNSS interference and jammer detection system. Originally developed within the GSA-funded DETECTOR project, the company is now looking to commercialise the system. “Thanks to the partnership between NSL and the BELS project, NSL has been able to trial their technology in the South East Asian region and to disseminate results with key regional stakeholders,” says Vannucchi. “The company is also looking forward to closer cooperation with the BELS partners to develop solutions that ensure safe, secure and reliable use of GNSS in support of a range of governmental applications within the region.”
These calls are open to any EU-based company working with E-GNSS equipment and solutions and with commercial interest in the region. Successful applicants receive financial support via a voucher worth up to EUR 2 500. Applicants can apply at any time during the year, with applications being evaluated every three months. The call will be closed once the available budget has been fully allocated. In order to be considered, companies should provide a short company profile, proof of activity in the field of E-GNSS, a letter of motivation, CV and suggested timeframe for the visit.
More information can be found here.
Media note: This feature can be republished without charge provided the European GNSS Agency (GSA) is acknowledged as the source at the top or the bottom of the story. You must request permission before you use any of the photographs on the site. If you republish, we would be grateful if you could link back to the GSA website (http://www.gsa.europa.eu).
All eyes are on Antarctica’s Larsen C ice shelf as a deep crack continues to cut across the ice, leaving a huge chunk clinging on. When it eventually gives way, one of the largest icebergs on record will be set adrift. Even before the inevitable happens, ESA’s CryoSat mission can reveal some of the future berg’s vital statistics.
All eyes are on Antarctica’s Larsen C ice shelf as a deep crack continues to cut across the ice, leaving a huge chunk clinging on. When it eventually gives way, one of the largest icebergs on record will be set adrift. Even before the inevitable happens, ESA’s CryoSat mission can reveal some of the future berg’s vital statistics.
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z Cleerio
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z CLEERIO
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z CLEERIO
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z CLEERIO
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z Cleerio
Společnosti se vzájemně doplní zejména v oblasti produktu a prodejů. Nová spolupráce by měla přinést komplexní řešení pro klienty a přístup do nových oblastí. Obě společnosti, BIO-NEXUS a Cleerio, tvoří významnou součást investičního portfolia Springtide Ventures v rámci skupiny KKCG.
Příspěvek Cleerio se propojuje se společností BIO-NEXUS pochází z Cleerio
Koncem roku 2016 byl úspěšně ukončen projekt, který vypsalo Ministerstvo dopravy prostřednictvím TA ČR v rámci programu BETA - „Zvýšení bezpečnosti železničního provozu na vedlejších tratích s využitím družicových systémů (GNSS)“. Řešitelem veřejné zakázky byla firma AŽD Praha, s.r.o., která projekt realizovala v období od července 2014 do prosince 2016 s akronymem RegioSAT. Projekt vrcholil v říjnu 2016 demonstrací funkčnosti zabezpečení s využitím bezpečné lokalizace vlaku a určení jeho rychlosti pomocí GNSS na trati Číčenice - Volary.
Koncem roku 2016 byl úspěšně ukončen projekt, který vypsalo Ministerstvo dopravy prostřednictvím TA ČR v rámci programu BETA - „Zvýšení bezpečnosti železničního provozu na vedlejších tratích s využitím družicových systémů (GNSS)“. Řešitelem veřejné zakázky byla firma AŽD Praha, s.r.o., která projekt realizovala v období od července 2014 do prosince 2016 s akronymem RegioSAT. Projekt vrcholil v říjnu 2016 demonstrací funkčnosti zabezpečení s využitím bezpečné lokalizace vlaku a určení jeho rychlosti pomocí GNSS na trati Číčenice - Volary.
Koncem roku 2016 byl úspěšně ukončen projekt, který vypsalo Ministerstvo dopravy prostřednictvím TA ČR v rámci programu BETA - „Zvýšení bezpečnosti železničního provozu na vedlejších tratích s využitím družicových systémů (GNSS)“. Řešitelem veřejné zakázky byla firma AŽD Praha, s.r.o., která projekt realizovala v období od července 2014 do prosince 2016 s akronymem RegioSAT. Projekt vrcholil v říjnu 2016 demonstrací funkčnosti zabezpečení s využitím bezpečné lokalizace vlaku a určení jeho rychlosti pomocí GNSS na trati Číčenice - Volary.
Měřicí vůz AŽD Praha ve stanici Číčenice (AŽD Praha s.r.o.)
⇒ Článek o projektu RegioSAT (Reportér AŽD Praha s.r.o. 03/2017)
Vysloužilé družice mohou být v budoucnosti zachyceny a z klíčových oběžných drah odstraňovány s pomocí speciálního tahače, který využije magnetickou sílu.
Vysloužilé družice mohou být v budoucnosti zachyceny a z klíčových oběžných drah odstraňovány s pomocí speciálního tahače, který využije magnetickou sílu.
The European Global Navigation Satellite Systems Agency (GSA) presented two exciting Galileo ‘search and rescue’ (SAR) projects - GRICAS and HELIOS - at the Paris International Air Show in June.
On 8 March 2014, Malaysia Airlines Flight 370, a passenger flight, disappeared between Kuala Lumpur International Airport and its destination, Beijing Airport in China. The disappearance triggered one of the largest and most expensive multinational searches for a missing aircraft in history. The flight recorder could not be located and so it was not possible immediately to carry out an analysis of what went wrong and what could be done to ensure it never happened again.
Before MH370 vanished it did not send out a distress signal, there was no indication of poor weather and there was no warning of a technical problem; it was a mystery. MH370 came four years after the loss of Air France flight AF477 from Rio de Janeiro to Paris – again, there was no warning signal.
Watch this: Galileo Search and Rescue
Following the incident, the International Civil Aviation Organization (ICAO) realised that they needed to do something to improve the distress signalling and adopted new recommendations for a Global Aeronautical Distress and Safety System (GADSS). The European Union adopted an initiative in 2015 to improve the location of distressed aircraft for the swift rescue of passengers and rapid analysis to determine what went wrong and to identify safety improvements.
ICAO recommendations outlined the end to be achieved, while leaving the technological solutions to industry. Autonomous distress tracking means that an aircraft can transmit a signal automatically without the intervention of crew – who are focussed on recovery in an emergency. The device must also be autonomous of the aircraft’s electricity or other aircraft systems. There must also be a way for the device to alert SAR (Search and Rescue) control centres.
Through the European Union’s Horizon 2020 Research and Development programme, the GSA funded projects proposing technical solutions based on satellite support through the Galileo SAR service.
At the air show, Orolia, a lead partner in the HELIOS project, presented its GADSS compliant ‘Distress Tracking - Emergency Locator Transmitter’ (ELT-DT), which allows a beacon to automatically send a distress signal providing an accurate position when it detects unusual activity, such as a precipitous drop in altitude. Oralio CEO Jean-Yves Courtois said: “The ability to autonomously track aircraft in distress with continuous location data is an industry breakthrough that will deliver long-lasting benefits for the travelling public.”
Also watch: How the Galileo SAR service works
The GRICAS (Galileo Search-And-Rescue Return-Link Implementation for a better Civil Aviation Safety) system, like HELIOS, makes use of medium-altitude earth orbiting search and rescue systems (Cospas-Sarsat) which are supported by global navigation satellite systems, such as Galileo.
“GRICAS has developed two main products - firstly the ground station, MEOLUT, localising the distress signals; the second is next generation beacons that will equip the aircrafts to meet the ICAO requirements, allowing the aircraft to be localised and rescued in distress situations,” said Michel Monnerat, manager of the Location Infrastructure and Security Department at Thales Alenia Space.
All new commercial aircraft will have to meet ICAO requirements by 2021.
Media note: This feature can be republished without charge provided the European GNSS Agency (GSA) is acknowledged as the source at the top or the bottom of the story. You must request permission before you use any of the photographs on the site. If you republish, we would be grateful if you could link back to the GSA website (http://www.gsa.europa.eu).
V aktuálním vydání časopisu ArcRevue se dočtete například o využití GIS v komerčním sektoru, o tom, jak Institut plánování a rozvoje hl. m. Prahy analyzoval data mobilních operátorů, jak se pomocí DPZ hledají archeologické památky v Kurdistánu nebo třeba jak ve společnosti ELTODO převedli starého webového klienta do nové aplikace vytvořené nástrojem Web AppBuilder for ArcGIS.
V aktuálním vydání časopisu ArcRevue se dočtete například o využití GIS v komerčním sektoru, o tom, jak Institut plánování a rozvoje hl. m. Prahy analyzoval data mobilních operátorů, jak se pomocí DPZ hledají archeologické památky v Kurdistánu nebo třeba jak ve společnosti ELTODO převedli starého webového klienta do nové aplikace vytvořené nástrojem Web AppBuilder for ArcGIS.
July 1, 2017 is an important date for both the European GNSS Agency (GSA) and for the Galileo programme. Following a six-month handover phase that began on January 1st, as of July 1st the GSA officially takes responsibility for overseeing the operations and service provision for Galileo – a responsibility that includes ensuring a return on investment from Galileo in the form of across-the-board services and applications.
Our journey began three years ago when the European Commission issued Regulation 1285, stating that the Galileo exploitation phase was to start in 2016 and delegating the responsibility for overseeing this key phase to the GSA. Last year’s Declaration of Initial Services and the awarding of the Galileo Service Operator (GSOp) contract marked the official transition of Galileo from a testing phase to a system in service – and were the first concrete steps taken by the GSA in our new role.
Carlo des Dorides, Executive Director of the European GNSS Agency (GSA)
Overseeing the Galileo service provision is no simple task, and one that requires the GSA to wear multiple hats. For example, our responsibilities include overseeing the operation of such key service facilities as the Galileo Security Monitoring Centre (GSMC) in France and the UK, the European GNSS Service Centre (GSC) in Spain and the Galileo Reference Centre (GRC) in the Netherlands. We are also charged with maximising Galileo adoption across user market segments, including positioning Galileo as the leading constellation in search and rescue beacons and making the Public Regulated Service (PRS) the service of choice for all authorised users.
In parallel with the development of the service provision, additional satellites will continue to be added to the Galileo constellation, allowing new services to become available. And here lies one of the key challenges we face, namely, the need to balance the development of the Galileo service provision with the need for continued programme deployment.
The end goal of all this work is to ensure that Galileo is positioned as the second GNSS constellation of choice (after GPS) by the time the system reaches full operational capability from 2020. The GSA is well positioned to oversee the ongoing investment in the research, technology and applications needed to achieve this goal.
In preparing for our new role, the GSA has leaned heavily on our strong track record and experience from our work with EGNOS, where we have been responsible for the programme’s service provision since 2014. We have also undergone a thorough internal assessment and a ramp up of our competence level, all in preparation for July 1, 2017 – the day we begin to put into practice everything that we have been working towards and usher in a new era for the Galileo programme.
Of course, this was accomplished with the help and support of our colleagues at the European Commission and the European Space Agency (ESA). ESA will remain in charge of the system activities and the deployment of the ground and space segments, while working closely with us for service provision. GSA is also integrating senior ESA expertise, bringing in their knowledge of the system and operations, to ensure that we can deliver high quality services to users.
July 1, 2017 is an important date for both the European GNSS Agency (GSA) and for the Galileo programme. Following a six-month handover phase that began on January 1st, as of July 1st the GSA officially takes responsibility for overseeing the operations and service provision for Galileo – a responsibility that includes ensuring a return on investment from Galileo in the form of across-the-board services and applications.
Our journey began three years ago when the European Commission issued Regulation 1285, stating that the Galileo exploitation phase was to start in 2016 and delegating the responsibility for overseeing this key phase to the GSA. Last year’s Declaration of Initial Services and the awarding of the Galileo Service Operator (GSOp) contract marked the official transition of Galileo from a testing phase to a system in service – and were the first concrete steps taken by the GSA in our new role.
Carlo des Dorides, Executive Director of the European GNSS Agency (GSA)
Overseeing the Galileo service provision is no simple task, and one that requires the GSA to wear multiple hats. For example, our responsibilities include overseeing the operation of such key service facilities as the Galileo Security Monitoring Centre (GSMC) in France and the UK, the European GNSS Service Centre (GSC) in Spain and the Galileo Reference Centre (GRC) in the Netherlands. We are also charged with maximising Galileo adoption across user market segments, including positioning Galileo as the leading constellation in search and rescue beacons and making the Public Regulated Service (PRS) the service of choice for all authorised users.
In parallel with the development of the service provision, additional satellites will continue to be added to the Galileo constellation, allowing new services to become available. And here lies one of the key challenges we face, namely, the need to balance the development of the Galileo service provision with the need for continued programme deployment.
The end goal of all this work is to ensure that Galileo is positioned as the second GNSS constellation of choice (after GPS) by the time the system reaches full operational capability from 2020. The GSA is well positioned to oversee the ongoing investment in the research, technology and applications needed to achieve this goal.
In preparing for our new role, the GSA has leaned heavily on our strong track record and experience from our work with EGNOS, where we have been responsible for the programme’s service provision for the since 2014. We have also undergone a thorough internal assessment and a ramp up of our competence level, all in preparation for July 1, 2017 – the day we begin to put into practice everything that we have been working towards and usher in a new era for the Galileo programme. The time for rehearsal is done, now it’s showtime.
July 1, 2017 is an important date for both the European GNSS Agency (GSA) and for the Galileo programme. Following a six-month handover phase that began on January 1st, as of July 1st the GSA officially takes responsibility for overseeing the operations and service provision for Galileo – a responsibility that includes ensuring a return on investment from Galileo in the form of across-the-board services and applications.
Our journey began three years ago when the European Commission issued Regulation 1285, stating that the Galileo exploitation phase was to start in 2016 and delegating the responsibility for overseeing this key phase to the GSA. Last year’s Declaration of Initial Services and the awarding of the Galileo Service Operator (GSOp) contract marked the official transition of Galileo from a testing phase to a system in service – and were the first concrete steps taken by the GSA in our new role.
Carlo des Dorides, Executive Director of the European GNSS Agency (GSA)
Overseeing the Galileo service provision is no simple task, and one that requires the GSA to wear multiple hats. For example, our responsibilities include overseeing the operation of such key service facilities as the Galileo Security Monitoring Centre (GSMC) in France and the UK, the European GNSS Service Centre (GSC) in Spain and the Galileo Reference Centre (GRC) in the Netherlands. We are also charged with maximising Galileo adoption across user market segments, including positioning Galileo as the leading constellation in search and rescue beacons and making the Public Regulated Service (PRS) the service of choice for all authorised users.
In parallel with the development of the service provision, additional satellites will continue to be added to the Galileo constellation, allowing new services to become available. And here lies one of the key challenges we face, namely, the need to balance the development of the Galileo service provision with the need for continued programme deployment.
The end goal of all this work is to ensure that Galileo is positioned as the second GNSS constellation of choice (after GPS) by the time the system reaches full operational capability from 2020. The GSA is well positioned to oversee the ongoing investment in the research, technology and applications needed to achieve this goal.
In preparing for our new role, the GSA has leaned heavily on our strong track record and experience from our work with EGNOS, where we have been responsible for the programme’s service provision for the since 2014. We have also undergone a thorough internal assessment and a ramp up of our competence level, all in preparation for July 1, 2017 – the day we begin to put into practice everything that we have been working towards and usher in a new era for the Galileo programme.
Of course, this was accomplished with the help and support of our colleagues at the European Commission and the European Space Agency (ESA). ESA will remain in charge of the system activities and the deployment of the ground and space segments, while working closely with us for service provision. GSA is also integrating senior ESA expertise, bringing in their knowledge of the system and operations, to ensure that we can deliver high quality services to users.