The Spanish high-resolution land imaging mission, known as SEOSAT-Ingenio, is currently at the premises of Airbus in Madrid, Spain and is ready to be packed and shipped to Europe’s Spaceport in French Guiana – following the mission’s latest successful tests and final technical review. This is another significant milestone in preparing the Earth observation satellite’s ride into orbit on a Vega rocket.
V dňoch 11. – 12.6.2020 sa uskutočnilo online školenie s názvom „GeoPython pro začátečníky“. Školenie viedla dvojica lektorov zo skupiny GISMentors: Jáchym Čepický a Jan Růžička. Ďalší lektor zo skupiny GISMentors Martin Landa, ktorý taktiež školí „GeoPython“ bol online k dispozícii. Skupina GISMentors predstavuje nezávislé združenie školiteľov v oblasti GIS a open source riešení. Organizačne skupinu zaisťuje […]
The post GeoPython – report zo školenia organizovaného skupinou GISMentors appeared first on GISportal.cz.
The Copernicus Sentinel-2 mission takes us over Barcelona – the second largest city in Spain.
On the northeast coast of the Iberian Peninsula, Barcelona occupies a low plateau along the Mediterranean coastal plain. The city and its red roofs contrast with the forested hills and the sea that surround it.
The famous Avinguda Diagonal avenue can be seen in the right of the image. The road is one of Barcelona’s broadest avenues and cuts the city diagonally in two, hence its name. The circular Plaça de les Glòries Catalanes was meant to be the city centre in the original urban plan, but nowadays is used largely as a roundabout.
Dominating the left side of the image are the Garraf Massif mountains, their cliffs reaching the Mediterranean coast. Its highest point on the coastal side is La Morella – almost 600 m above sea level.
The Llobregat River can be seen entering the image in the top left. The river rises in the eastern Pyrenees and flows southeast before emptying into the Mediterranean Sea. Before reaching the sea, the river forms a small delta, which used to provide a large extension of fertile land but is now largely urbanised. Barcelona-El Prat airport can be seen to the left of the river. Along the coast, the port of Barcelona, one of Europe’s top ten largest container ports, is visible.
Barcelona is home to the Universitat Politècnica de Catalunya – the largest engineering university in Catalonia. In 2017, the university won ESA’s Small Satellite Challenge and the top prize at the Copernicus Masters competition with its Federated Satellite Systems (FSSCat) project. The FSSCat mission consists of two small CubeSat satellites, each about the size of a shoebox, and will use state-of-the-art dual microwave and multispectral optical sensors.
Ф-sat-1 – an enhancement of FSSCat carried on one of the two CubeSats – is set to launch soon from Europe’s spaceport in Kourou. It will be the first experiment to demonstrate how artificial intelligence can be used for Earth observation. Ф-sat-1 will have the ability to filter out less than perfect images so that only usable data are returned to Earth. This will allow for the efficient handling of data so that users will have access to timely information – ultimately benefiting society at large.
Ф-sat-1 will acquire an enormous number of images that will allow scientists to detect urban heat islands, monitor changes in vegetation and water quality, as well as carry out experiments on the role of evapotranspiration in climate change.
This image, which was captured on 16 March 2017, is also featured on the Earth from Space video programme.
The Copernicus Sentinel-2 mission takes us over Barcelona – the second largest city in Spain.
On the northeast coast of the Iberian Peninsula, Barcelona occupies a low plateau along the Mediterranean coastal plain. The city and its red roofs contrast with the forested hills and the sea that surround it.
The famous Avinguda Diagonal avenue can be seen in the right of the image. The road is one of Barcelona’s broadest avenues and cuts the city diagonally in two, hence its name. The circular Plaça de les Glòries Catalanes was meant to be the city centre in the original urban plan, but nowadays is used largely as a roundabout.
Dominating the left side of the image are the Garraf Massif mountains, their cliffs reaching the Mediterranean coast. Its highest point on the coastal side is La Morella – almost 600 m above sea level.
The Llobregat River can be seen entering the image in the top left. The river rises in the eastern Pyrenees and flows southeast before emptying into the Mediterranean Sea. Before reaching the sea, the river forms a small delta, which used to provide a large extension of fertile land but is now largely urbanised. Barcelona-El Prat airport can be seen to the left of the river. Along the coast, the port of Barcelona, one of Europe’s top ten largest container ports, is visible.
Barcelona is home to the Universitat Politècnica de Catalunya – the largest engineering university in Catalonia. In 2017, the university won ESA’s Small Satellite Challenge and the top prize at the Copernicus Masters competition with its Federated Satellite Systems (FSSCat) project. The FSSCat mission consists of two small CubeSat satellites, each about the size of a shoebox, and will use state-of-the-art dual microwave and multispectral optical sensors.
Ф-sat-1 – an enhancement of FSSCat carried on one of the two CubeSats – is set to launch soon from Europe’s spaceport in Kourou. It will be the first experiment to demonstrate how artificial intelligence can be used for Earth observation. Ф-sat-1 will have the ability to filter out less than perfect images so that only usable data are returned to Earth. This will allow for the efficient handling of data so that users will have access to timely information – ultimately benefiting society at large.
Ф-sat-1 will acquire an enormous number of images that will allow scientists to detect urban heat islands, monitor changes in vegetation and water quality, as well as carry out experiments on the role of evapotranspiration in climate change.
This image, which was captured on 16 March 2017, is also featured on the Earth from Space video programme.
Máte rádi mapy, moderní mapové aplikace a máte chuť se podílet na rozvoji softwaru, který je vytváří? Chcete pracovat pro leadera na českém i světovém trhu v oblasti geoinformatiky? Chcete být členem dobře fungujícího týmu? Pak vás rádi poznáme.
Protože chceme náš tým rozšířit o další konzultanty a vývojáře webového GIS, hledáme někoho, kdo má alespoň základní znalosti a schopnosti vývoje ve webovém prostředí – primárně vývoje klientských aplikací v JavaScript (ES6, TypeScript, HTML5, CSS3) a ideálně i serverových aplikací nad platformou .NET či Java.
Na práci v menších týmech, kde táhneme za jeden provaz a učíme se jeden od druhého navzájem. Na projekty plné inovativních a technologicky progresivních řešení. Na moderní IT a software opravdového leadera na trhu GIS. Na další vzdělávání, a to nejen formou různých externích školení, ale také interních kurzů v ARCDATA nebo přímo v Esri.
Pokud vás tato nabídka zaujala, napište nám na adresu jobs@arcdata.cz.
Úvodní foto: Pexels
In this week's edition of the Earth from Space programme, the Copernicus Sentinel-2 mission takes us over Barcelona, the second largest city in Spain.
See also Barcelona, Spain to download the image
Máte rádi mapy, moderní mapové aplikace a máte chuť se podílet na rozvoji softwaru, který je vytváří? Chcete pracovat pro leadera na českém i světovém trhu v oblasti geoinformatiky? Chcete být členem dobře fungujícího týmu? Pak vás rádi poznáme.
Protože chceme náš tým rozšířit o další konzultanty a vývojáře webového GIS, hledáme někoho, kdo má alespoň základní znalosti a schopnosti vývoje ve webovém prostředí – primárně vývoje klientských aplikací v JavaScript (ES6, TypeScript, HTML5, CSS3) a ideálně i serverových aplikací nad platformou .NET či Java.
Na práci v menších týmech, kde táhneme za jeden provaz a učíme se jeden od druhého navzájem. Na projekty plné inovativních a technologicky progresivních řešení. Na moderní IT a software opravdového leadera na trhu GIS. Na další vzdělávání, a to nejen formou různých externích školení, ale také interních kurzů v ARCDATA nebo přímo v Esri.
Pokud vás tato nabídka zaujala, napište nám na adresu jobs@arcdata.cz.
In this week's edition of the Earth from Space programme, the Copernicus Sentinel-2 mission takes us over Barcelona, the second largest city in Spain.
See also Barcelona, Spain to download the image
A webinar is being organised by the Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), which is developing the Advanced Receiver Autonomous Integrity Monitoring (ARAIM) prototype receiver under the Fundamental Elements programme. It will take place on 24 June and will cover the ARAIM concept and GLAD activities during the prototyping and demonstration of the results. You can register here.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS, provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by a Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to take shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet required safety criteria in terms of lateral and vertical guidance, thereby addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on the development of ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposals. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and ends in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits will include significant contributions to improvements in position integrity, and to underpinning the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To reach the objectives set out within the project framework, the GSA and GLAD Team take the opportunity to invite stakeholders to a Webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can register 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).
A webinar is organised by Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), that is developing the Advanced Receiver Autonomous Integrity Monitoring (RAIM) prototype receiver under the Fundamental Elements. It will take place on 24th June and will cover ARAIM concept, GLAD activities during the prototyping and demonstration of the results. You can register here.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet safety-required criteria in terms of lateral and vertical guidance, and as such addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on development an ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposal. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet the global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises of Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and completes in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits to this will be significant contributions to improvements in position integrity, and underpins the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To conclude the objectives set out within the project framework, the GSA and GLAD Team take the opportunity to invite the stakeholders to a Webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can register 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).
A webinar is organised by Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), that is developing the Advanced Receiver Autonomous Integrity Monitoring (RAIM) prototype receiver under the Fundamental Elements. It will take place on 24th June and will cover ARAIM concept, GLAD activities during the prototyping and demonstration of the results. You can register here.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet safety-required criteria in terms of lateral and vertical guidance, and as such addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on development an ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposal. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet the global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises of Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and completes in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits to this will be significant contributions to improvements in position integrity, and underpins the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To conclude the objectives set out within the project framework, the GSA and GLAD Team take the opportunity to invite the stakeholders to a Webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can register 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).
A webinar was organised by the Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), which is developing the Advanced Receiver Autonomous Integrity Monitoring (RAIM) prototype receiver under the Fundamental Elements programme. With more than 80 participants, the webinar covered the ARAIM concept and GLAD activities during the prototyping and demonstration of the results.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS, provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by a Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to take shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet required safety criteria in terms of lateral and vertical guidance, thereby addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on the development of ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposals. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and ends in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits will include significant contributions to improvements in position integrity, and to underpinning the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To reach the objectives set out within the project framework, the GSA and GLAD Team took the opportunity to invite stakeholders to a webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can now check the presentation shared during the webinar on this page.
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).
A webinar is being organised by the Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), which is developing the Advanced Receiver Autonomous Integrity Monitoring (ARAIM) prototype receiver under the Fundamental Elements programme. It will take place on 24 June and will cover the ARAIM concept and GLAD activities during the prototyping and demonstration of the results. You can register here.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS, provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by a Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to take shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet required safety criteria in terms of lateral and vertical guidance, thereby addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on the development of ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposals. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and ends in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits will include significant contributions to improvements in position integrity, and to underpinning the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To reach the objectives set out within the project framework, the GSA and GLAD Team take the opportunity to invite stakeholders to a Webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can register 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).
A webinar is organised by Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), that is developing the Advanced Receiver Autonomous Integrity Monitoring (ARAIM) prototype receiver under the Fundamental Elements. It will take place on 24th June and will cover ARAIM concept, GLAD activities during the prototyping and demonstration of the results. You can register here.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet safety-required criteria in terms of lateral and vertical guidance, and as such addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on development an ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposal. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet the global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises of Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and completes in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits to this will be significant contributions to improvements in position integrity, and underpins the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To conclude the objectives set out within the project framework, the GSA and GLAD Team take the opportunity to invite the stakeholders to a Webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can register 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).
A webinar was organised by the Global ARAIM for Dual-Constellation (GLAD) project, co-funded by the European GNSS Agency (GSA), which is developing the Advanced Receiver Autonomous Integrity Monitoring (RAIM) prototype receiver under the Fundamental Elements programme. It took place on 24 June 2020 and covered the ARAIM concept and GLAD activities during the prototyping and demonstration of the results.
The Advanced RAIM (ARAIM) concept extends the traditional legacy GPS single frequency Receiver Autonomous Integrity Monitoring (RAIM) by using multiple GNSS constellations that may include signals from the same satellite transmitting more than one frequency. The Galileo constellation, in addition to GPS, provides a Dual Frequency Multi-Constellation (DFMC) system that allows for robustness and redundancy. In the aviation sector, when DFMC is supported by a Satellite Based Augmentation System (SBAS) and ARAIM, satellite availability is leveraged with accuracy in position, and the associated integrity and continuity elevated in terms of radio navigation performance.
The ARAIM concept started to take shape in the Working Group C, the ARAIM Technical Subgroup, that was established in 2010, based on the US-EU bilateral agreement on GPS-Galileo co-operation agreement signed in 2004 with the goal to develop GPS-Galileo integrated applications for Safety of Life operations.
Concept wise, each GNSS Constellation Service Provider (CSP) will transmit an Integrity Support Message (ISM) to broadcast integrity information associated with its own system. The airborne receiver’s ARAIM algorithm processes this information to gain sufficient confidence in the information provided by the specific GNSS constellation in order to meet required safety criteria in terms of lateral and vertical guidance, thereby addressing the requirement for all phases of flight up to Category I (CAT I) precision approach capability/LPV 200 approach globally in the future.
GLobal ARAIM for Dual-Constellation (GLAD) is an innovative project focusing on the development of ARAIM capability within the Collins’ Global Navigation Satellite Systems (GNSS) Multi-Mode Receiver (MMR). This project is funded by the European GNSS Agency (GSA) under the “Development of an Advanced RAIM Multi-Constellation Receiver” Call for proposals. The key tenet for Collins Aerospace, a key aviation market player, was to work closely with the GSA to support the definition and development of ARAIM features to meet global airspace modernisation requirements. To that effect, Collins put together a GLAD project team which comprises Airbus, GMV, NATS and Pildo Labs to lead an ARAIM development prototyping activity. The project commenced in May 2018 and ends in June 2020.
The key objectives of the GLAD project is the maturation of the ARAIM concept by prototyping the algorithm within critical components of the Collins’ GLU-2100 Multi-Mode Receiver (MMR), followed by testing and assessing the performance of the algorithm. In addition, the project focused on concepts of operations (CONOPS) using ARAIM and collaborated with Air Navigation Service Providers (ANSPs) to engage and understand the requirements for airport operations. The team also contributed to standardisation activities within GNSS working groups.
The GLAD team has successfully conducted ground experiments demonstrating real-time horizontal and vertical ARAIM performance, with a horizontal precision of 0.3 NM and vertical precision supporting LPV-200. The future benefits will include significant contributions to improvements in position integrity, and to underpinning the economic (fuel and time), environmental (CO2) and safety aspects required by the aviation industry.
To reach the objectives set out within the project framework, the GSA and GLAD Team took the opportunity to invite stakeholders to a webinar on 24th June 2020 to explain the ARAIM concept, outcomes of the project and show the ARAIM prototype developed. You can now check the presentation shared during the webinar on this page.
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).
By reinforcing synergies with other space technologies and working with all the Member States, while creating a favourable ecosystem, the impact of the space sector on economic growth in Europe will largely expand and create more jobs, according to European GNSS Agency (GSA) Acting Executive Director Pascal Claudel.
The 2nd Earth Observation Summit has been held online on 2-3 June. This was the occasion to underline how the different components of the EU Space programme are creating value by building applications together.
“The space sector is of strategic importance to the Union. In the last decade space related sectors grew twice as fast as global economy grows. Europe has historically been on the forefront investing greatly in space infrastructure such as Copernicus, Galileo and EGNOS. We are proud of these successful investments which are now the foundations and enablers for new applications and businesses. Indeed, space has a multiplier effect in terms of investment and the EU is well placed to capitalize on its strong space industry since more than 10% of the overall EU economy depends on space related services. Relevant technologies generate opportunities for job creation based on new skills, skills of the future.” stated Ms Blaženka Divjak, Croatian Minister of Science and Education during her opening of the Summit.
Underlining this need for the economic development with innovative approaches in mind, Timo Pesonen, Director General of the European Commission’s Directorate-General for Defence Industry and Space (DG DEFIS), confirmed “New products, new satellite missions and new technology, especially digital, like Artificial Intelligence, Quantum technology, and high-performance computing are essential, to keep our industry competitive.”
Pascal Claudel, GSA Acting Executive Director, confirmed that synergies between all the EU’s Space Programmes are key to increasing the space sector’s presence with EU-ready market products in all market segments. “This will contribute to the growth of our SMEs and start-ups through innovative solutions” he said
Read this: European GNSS Agency (GSA) releases 6th GNSS Market Report
Timo Pesonen also cited the European Green Deal as a prime example of a political answer to global challenges. “An ambitious space programme, as the Commission proposes, will contribute to Europe’s digital and green transitions, to strengthening our resilience and strategic autonomy, and in turn our potential to innovate for the future,” he said.
In its operational role of ensuring that European companies are getting the best out of the EU satellite navigation systems, GSA confirmed that significant new markets are coming, such as autonomous vehicles, cars and drones, or applications for smart mobility and smart cities. They will play a crucial role also for the European Green Deal.: “To win parts of these markets, we need to have a performant EU entrepreneurship ecosystem and the involvement of all EU Member States. We have to gather our forces and our competencies.” stated the GSA acting Executive Director.
Indeed, EU Member States do not need to have specific competences in space technologies or a strong space sector to use space data and develop applications. The development of the Galileo Green Lane app, managed by the GSA had been led by traditional start-ups and SMEs. This app makes it possible to ease the transit of critical goods at borders within EU. So, every Member State has the capacity to be an actor on these markets and to develop its own entrepreneurship.
Read this: Looking to space for solutions on Earth Day
Pascal Claudel also noted that, EGNSS (Galileo and EGNOS) is a federator, making it possible to manage EU traffic, and maritime, inland waterway and rail transport. “We can federate all national traffic management systems towards a unique one. Future funding.
Speaking at a summit session on funding opportunities, Marta Krywanis, Head of Downstream R&D in the GSA Market Development Department, explained that research and development play a key role in the innovation process. “R&D is an investment in technology and future capabilities that can be transformed into new products, processes and services,” she said.
M. Krywanis explained that, since years, the GSA had applied a market-oriented approach to innovation in downstream applications. “This has proven to be a major factor in the market uptake of EGNOS and Galileo. The successful implementation of Fundamental Elements and H2020 programmes have led to the creation of a portfolio of products and advanced prototypes,” she said.
Galileo system as an operational and with the new version of EGNOS to be deployed, the primary goal will be to establish European GNSS as the leader in those markets and sectors that best benefit the unique differentiators of the systems. M. Krywanis noted that, towards this goal, the GSA had consulted with stakeholders and produced a report on proposed European GNSS (EGNSS) downstream funding priorities and tools for the years 2021-2027.
“We believe that R&D focused on EGNSS and its synergies with Copernicus and GovSatCom, for example, will bring many innovations and will contribute to more competitive industry and a greater number of products made in the EU,” she said.
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).
By reinforcing synergies with other space technologies and working with all the Member States, while creating a favourable ecosystem, the impact of the space sector on economic growth in Europe will expand and create more jobs, according to European GNSS Agency (GSA) Acting Executive Director Pascal Claudel.
The 2nd Earth Observation Summit was held online on 2-3 June, providing an opportunity to underline how the different components of the EU Space programme are creating value by building applications together.
“The space sector is of strategic importance to the Union. In the last decade, space related sectors grew twice as fast as the global economy. Europe has historically been on the forefront, investing greatly in space infrastructure such as Copernicus, Galileo and EGNOS. We are proud of these successful investments which are now the foundations and enablers for new applications and businesses. Indeed, space has a multiplier effect in terms of investment and the EU is well placed to capitalize on its strong space industry since more than 10% of the overall EU economy depends on space related services. Relevant technologies generate opportunities for job creation based on new skills, skills of the future,” said Ms Blaženka Divjak, Croatian Minister of Science and Education during her opening of the Summit.
Underlining this need for economic development based on innovative approaches, Timo Pesonen, Director General of the European Commission’s Directorate-General for Defence Industry and Space (DG DEFIS), confirmed: “New products, new satellite missions and new technology, especially digital, like Artificial Intelligence, Quantum technology, and high-performance computing are essential, to keep our industry competitive.”
Pascal Claudel, GSA Acting Executive Director, said that synergies between all the EU’s Space Programmes are key to increasing the space sector’s presence with EU-ready market products in all market segments. “This will contribute to the growth of our SMEs and start-ups through innovative solutions,” he said.
Read this: European GNSS Agency (GSA) releases 6th GNSS Market Report
Timo Pesonen also cited the European Green Deal as a prime example of a political answer to global challenges. “An ambitious space programme, as the Commission proposes, will contribute to Europe’s digital and green transitions, to strengthening our resilience and strategic autonomy, and in turn our potential to innovate for the future,” he said.
In its operational role of ensuring that European companies are getting the best out of the EU satellite navigation systems, the GSA confirmed that significant new markets are coming, such as autonomous vehicles, cars and drones, or applications for smart mobility and smart cities. These will play a crucial role also for the European Green Deal. “To win parts of these markets, we need to have a performant EU entrepreneurship ecosystem and the involvement of all EU Member States. We have to gather our forces and our competencies,” the GSA Acting Executive Director said.
Indeed, EU Member States do not need to have specific competences in space technologies or a strong space sector to use space data and develop applications. The development of the Galileo Green Lane app, managed by the GSA, was led by traditional start-ups and SMEs. This app makes it possible to ease the transit of critical goods at borders within the EU. So, every Member State has the capacity to be an actor on these markets and to develop its own entrepreneurship.
Read this: Looking to space for solutions on Earth Day
The GSA also noted that EGNSS (Galileo and EGNOS) is a federator, making it possible to manage EU traffic, and maritime, inland waterway and rail transport. “We can federate all national traffic management systems towards a unique one," Claudel said.
Speaking at a summit session on funding opportunities, Marta Krywanis, Head of Downstream R&D in the GSA Market Development Department, explained that research and development play a key role in the innovation process. “R&D is an investment in technology and future capabilities that can be transformed into new products, processes and services,” she said.
Krywanis explained that for years the GSA has applied a market-oriented approach to innovation in downstream applications. “This has proven to be a major factor in the market uptake of EGNOS and Galileo. The successful implementation of the Fundamental Elements and H2020 programmes have led to the creation of a portfolio of products and advanced prototypes,” she said.
With the Galileo system as operational and with the new version of EGNOS to be deployed, the primary goal will be to establish European GNSS as the leader in those markets and sectors that best benefit the unique differentiators of the systems. Krywanis noted that, towards this goal, the GSA had consulted with stakeholders and produced a report on proposed European GNSS (EGNSS) downstream funding priorities and tools for the years 2021-2027.
“We believe that R&D focused on EGNSS and its synergies with Copernicus and GovSatCom, for example, will bring many innovations and will contribute to more competitive industry and a greater number of products made in the EU,” she said.
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).
By reinforcing synergies with other space technologies and working with all the Member States, while creating a favourable ecosystem, the impact of the space sector on economic growth in Europe will largely expand and create more jobs, according to European GNSS Agency (GSA) Acting Executive Director Pascal Claudel.
The 2nd Earth Observation Summit has been held online on 2-3 June. This was the occasion to underline how the different components of the EU Space programme are creating value by building applications together.
“The space sector is of strategic importance to the Union. In the last decade space related sectors grew twice as fast as global economy grows. Europe has historically been on the forefront investing greatly in space infrastructure such as Copernicus, Galileo and EGNOS. We are proud of these successful investments which are now the foundations and enablers for new applications and businesses. Indeed, space has a multiplier effect in terms of investment and the EU is well placed to capitalize on its strong space industry since more than 10% of the overall EU economy depends on space related services. Relevant technologies generate opportunities for job creation based on new skills, skills of the future.” stated Ms Blaženka Divjak, Croatian Minister of Science and Education during her opening of the Summit.
Underlining this need for the economic development with innovative approaches in mind, Timo Pesonen, Director General of the European Commission’s Directorate-General for Defence Industry and Space (DG DEFIS), confirmed “New products, new satellite missions and new technology, especially digital, like Artificial Intelligence, Quantum technology, and high-performance computing are essential, to keep our industry competitive.”
Pascal Claudel, GSA Acting Executive Director, confirmed that synergies between all the EU’s Space Programmes are key to increasing the space sector’s presence with EU-ready market products in all market segments. “This will contribute to the growth of our SMEs and start-ups through innovative solutions” he said
Read this: European GNSS Agency (GSA) releases 6th GNSS Market Report
Timo Pesonen also cited the European Green Deal as a prime example of a political answer to global challenges. “An ambitious space programme, as the Commission proposes, will contribute to Europe’s digital and green transitions, to strengthening our resilience and strategic autonomy, and in turn our potential to innovate for the future,” he said.
In its operational role of ensuring that European companies are getting the best out of the EU satellite navigation systems, GSA confirmed that significant new markets are coming, such as autonomous vehicles, cars and drones, or applications for smart mobility and smart cities. They will play a crucial role also for the European Green Deal.: “To win parts of these markets, we need to have a performant EU entrepreneurship ecosystem and the involvement of all EU Member States. We have to gather our forces and our competencies.” stated the GSA acting Executive Director.
Indeed, EU Member States do not need to have specific competences in space technologies or a strong space sector to use space data and develop applications. The development of the Galileo Green Lane app, managed by the GSA had been led by traditional start-ups and SMEs. This app makes it possible to ease the transit of critical goods at borders within EU. So, every Member State has the capacity to be an actor on these markets and to develop its own entrepreneurship.
Read this: Looking to space for solutions on Earth Day
The GSA also noted that, EGNSS (Galileo and EGNOS) is a federator, making it possible to manage EU traffic, and maritime, inland waterway and rail transport. “We can federate all national traffic management systems towards a unique one.
Speaking at a summit session on funding opportunities, Marta Krywanis, Head of Downstream R&D in the GSA Market Development Department, explained that research and development play a key role in the innovation process. “R&D is an investment in technology and future capabilities that can be transformed into new products, processes and services,” she said.
M. Krywanis explained that, since years, the GSA had applied a market-oriented approach to innovation in downstream applications. “This has proven to be a major factor in the market uptake of EGNOS and Galileo. The successful implementation of Fundamental Elements and H2020 programmes have led to the creation of a portfolio of products and advanced prototypes,” she said.
Galileo system as an operational and with the new version of EGNOS to be deployed, the primary goal will be to establish European GNSS as the leader in those markets and sectors that best benefit the unique differentiators of the systems. M. Krywanis noted that, towards this goal, the GSA had consulted with stakeholders and produced a report on proposed European GNSS (EGNSS) downstream funding priorities and tools for the years 2021-2027.
“We believe that R&D focused on EGNSS and its synergies with Copernicus and GovSatCom, for example, will bring many innovations and will contribute to more competitive industry and a greater number of products made in the EU,” she said.
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).
Originally Scheduled to Present in Kansas City, Middle and High School Students from Several States Pivoted to Showcase Bridge Design Projects in a Virtual Setting
EXTON, Pa. – June 11, 2020 – Bentley Systems, Incorporated, a leading global provider of comprehensive software and digital twin cloud services for the design, construction, and operations of infrastructure, and the American Association of State Highway Transportation Officials (AASHTO), a nonprofit, nonpartisan association representing highway and transportation departments in the United States, this year presented the annual Transportation and Civil Engineering (TRAC) contest for middle and high school students in a virtual setting. Originally scheduled to be held during AASHTO’s spring meeting in Kansas City, organizers re-invented the competition as the “AASHTO Virtual TRAC Showcase” as a result of COVID-19 social-distancing restrictions.
The Bentley-sponsored AASHTO National Bridge and Structure TRAC Bridge Challenge invites students from 7th-12th grades to design innovative bridge projects using Bentley applications. This year, 18 finalist teams were selected. However, when AASHTO made the difficult decision not to hold the event in person, Bentley partnered with AASHTO to host the “Virtual TRAC Showcase” on June 3. While only 12 of the 18 teams could present in the online forum, it served as an opportunity to recognize students for their hard work, allowing them to present virtually their projects in front of parents, teachers, sponsors, state departments of transportation, and AASHTO members.
The winning teams from Maryland, Virginia, Michigan, and Mississippi, with names including “The Suspension Is Killing Me,” “Bridge O Matics,” and “Cable Stayed Mustangs,” presented their bridge projects designed using Bentley software that included MicroStation, OpenRoads, and ContextCapture. The 10-minute presentations allowed each team to demonstrate how they designed the bridges and built models of their designs with balsawood. Each member of the 12 teams received a certificate and gift card provided by Bentley Systems, Michael Baker International, and TopoDOT to acknowledge the students for their outstanding work.
Francois Valois, Bentley’s vice president for civil engineering, said, “The role of civil engineers is critical to transportation infrastructure. The hands-on experience of the TRAC program introduces students to civil engineering concepts and processes and inspires them to imagine a future career in engineering. I’m proud that AASHTO, Bentley, and the DOTs came together to provide this opportunity for the students to present their projects virtually and get the recognition that they deserve.”
Linda Clifton, AASHTO TRAC program manager, said AASHTO designed the program for use in science, technology, engineering, and math (STEM) classes to introduce students to transportation and civil engineering. “America’s transportation industry has a huge demand for well-qualified civil engineers. TRAC’s goal is to get middle and high school students exposed to and excited about a career in civil engineering. We see TRAC as an investment in today’s youth, to ensure that America has the highly-skilled workforce it’s going to need for years to come.”
If this year’s TRAC teams are any indication, the program has met its stated goal. One of the 12th-grade students said, “I started the program with an interest in civil engineering and ended with a love for it. TRAC was probably the best way to prepare me for a future as a civil engineer.”
To download videos of the award presentations, please visit the Bentley-sponsored AASHTO National Bridge and Structure TRAC Bridge Showcase.
Image: AASHTO Virtual TRAC Showcase
Caption: Bentley Systems turns AASHTO Student TRAC Bridge Contest into a virtual event
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About AASHTO
AASHTO is a nonprofit, nonpartisan association representing highway and transportation departments in the 50 states, the District of Columbia, and Puerto Rico. It represents all transportation modes, including air, highways, public transportation, active transportation, rail, and water. Its primary goal is to foster the development, operation, and maintenance of an integrated national transportation system.
TRAC™ (Transportation and Civil Engineering) & RIDES (Roadways In Developing Elementary Students), AASHTO’s educational outreach programs, are designed for use in Science, Technology, Engineering, and Math (STEM) classes. The hands-on activities introduce students in grades K-12 to the work world of transportation and civil engineering and inspire them to consider careers in those fields. State departments of transportation work with schools in their state by providing the curricula and resources for the schools and providing engineers to visit the classrooms to serve as speakers, teach a hands-on activity, and/or talk to students about the importance of math and science in preparing for their future. https://tracrides.transportation.org/
About Bentley Systems
Bentley Systems is a leading global provider of software solutions to engineers, architects, geospatial professionals, constructors, and owner-operators for the design, construction, and operations of infrastructure. Bentley’s MicroStation-based engineering and BIM applications, and its digital twin cloud services, advance the project delivery (ProjectWise) and the asset performance (AssetWise) of transportation and other public works, utilities, industrial and resources plants, and commercial and institutional facilities.
Bentley Systems employs more than 3,500 colleagues and generates annual revenues of more than $700 million in 172 countries. From inception in 1984, the company has remained majority-owned by its five founding Bentley brothers. www.bentley.com
Bentley, the Bentley logo, AssetWise, ContextCapture, MicroStation, OpenRoads, and ProjectWise are either registered or unregistered trademarks or service marks of Bentley Systems, Incorporated or one of its direct or indirect wholly owned subsidiaries. All other brands and product names are trademarks of their respective owners.
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