Flutter is a mobile improvement framework that has become very well known among coders across...
The post 5 best advantages of flutter app development appeared first on Siemens Blog Network.
Satlab Geosolutions, a leading surveying equipment manufacturer, has partnered with Aplitop
The post Satlab Geosolutions Established a Strategic Partnership Alliance with Aplitop appeared first on Global Satellite Positioning Singapore | SatLab Geosolutions AB.
Satlab Geosolutions, a leading surveying equipment manufacturer, has partnered with Aplitop
The post Satlab Geosolutions Established a Strategic Partnership Alliance with Aplitop appeared first on Global Satellite Positioning Solutions | SatLab Geosolutions AB.
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ARC, USA
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ARC Advisory Group, USA
Read the articleWhen disaster strikes, communication, information and location are key. With the addition of GOVSATCOM, the EU Space Programme provides all three.
Last summer, when Greece was ravaged by wildfires, public authorities relied on Copernicus’ Earth Observation services to detect and monitor the evolving situation. On the ground, firefighters and emergency first responders used EGNOS and Galileo to safely guide themselves through the smoke, fog and flames.
That same summer, when once-in-a-century floods in Germany, Belgium, the Netherlands and Luxembourg rendered transportation and communication infrastructure useless, satellite communication, working in synergy with Copernicus and European GNSS (EGNSS), provided rescue teams with the spatial awareness, connectivity and highly accurate positioning and navigation they needed to save lives.
But what happens when an incident occurs where there are no ground stations, either because they were destroyed (e.g., during an earthquake) or because they never existed in the first place (e.g., in remote regions such as the Arctic)? Or what if the end users require secure communication? Such is the case during cyber-attacks and other security-related incidents.
For situations like these, there’s GOVSATCOM.
GOVSATCOM is the fourth pillar of the EU Space Programme. While Copernicus and EGNSS provide the necessary data and positioning, some security incidents also require a means of communication that is robustly protected against interference, interception, intrusion and other risks. GOVSATCOM bridges this gap between the need for assured and secure communication and the capabilities already offered by Copernicus, Galileo and EGNOS.
Once active, GOVSATCOM will provide secure, cost-efficient communication capabilities to security and safety-critical missions, operations and infrastructure. The European Union Agency for the Space Programme (EUSPA) has been entrusted with the procurement of the secure operational ground segment (GOVSATCOM Hubs), its operations and the coordination of the user-related aspects of GOVSATCOM, all in close collaboration with Member States and other involved entities.
As a user-centric programme, GOVSATCOM is designed to meet the unique requirements of governmental applications, including those used for crisis management, surveillance and the management of key infrastructures. Further, to successfully execute their missions, governmental actors must have access to secure satellite communication services, which is something commercial satellite communication services aren’t able to provide.
GOVSATCOM users will likely include border and maritime authorities, law enforcement agencies, civil protection forces, search and rescue services, disaster relief and humanitarian missions, authorised infrastructure operators and military forces. The service will be available to EU institutions, relevant agencies and EU Member States.
GOVSATCOM will also serve specific use cases, such as providing connectivity to the Arctic region and for Machine to Machine (M2M) and Internet of Things (IoT) communications. Furthermore, it will be a central component to the EU’s Secure Connectivity Initiative, which is expected to provide additional EU-owned satellite communications resources to complement existing assets.
With its multiorbital design, Secure Connectivity will allow low latency governmental communications, while its use of quantum technologies will take the security of GOVSATCOM services to the next level. With such capabilities, GOVSATCOM could play an even bigger role in the air traffic control infrastructure that will enable the autonomous and remotely piloted aircraft systems of tomorrow, including drones and air taxis.
Most importantly, by working in synergy with Galileo, EGNOS and Copernicus, GOVSATCOM will further enhance the EU Space Programme’s ability to keep European citizens safe and secure.
Media note: This feature can be republished without charge provided the European Union Agency for the Space Programme (EUSPA) 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 EUSPA website (https://www.euspa.europa.eu).
When disaster strikes, communication, information and location are key. With the addition of GOVSATCOM, the EU Space Programme provides all three.
Last summer, when Greece was ravaged by wildfires, public authorities relied on Copernicus’ Earth Observation services to detect and monitor the evolving situation. On the ground, firefighters and emergency first responders used EGNOS and Galileo to safely guide themselves through the smoke, fog and flames.
That same summer, when once-in-a-century floods in Germany, Belgium, the Netherlands and Luxembourg rendered transportation and communication infrastructure useless, satellite communication, working in synergy with Copernicus and European GNSS (EGNSS), provided rescue teams with the spatial awareness, connectivity and highly accurate positioning and navigation they needed to save lives.
But what happens when an incident occurs where there are no ground stations, either because they were destroyed (e.g., during an earthquake) or because they never existed in the first place (e.g., in remote regions such as the Arctic)? Or what if the end users require secure communication? Such is the case during cyber-attacks and other security-related incidents.
For situations like these, there’s GOVSATCOM.
GOVSATCOM is the fourth pillar of the EU Space Programme. While Copernicus and EGNSS provide the necessary data and positioning, some security incidents also require a means of communication that is robustly protected against interference, interception, intrusion and other risks. GOVSATCOM bridges this gap between the need for assured and secure communication and the capabilities already offered by Copernicus, Galileo and EGNOS.
Once active, GOVSATCOM will provide secure, cost-efficient communication capabilities to security and safety-critical missions, operations and infrastructure. The European Union Agency for the Space Programme (EUSPA) has been entrusted with the procurement of the secure operational ground segment (GOVSATCOM Hubs), its operations and the coordination of the user-related aspects of GOVSATCOM, all in close collaboration with Member States and other involved entities.
As a user-centric programme, GOVSATCOM is designed to meet the unique requirements of governmental applications, including those used for crisis management, surveillance and the management of key infrastructures. Further, to successfully execute their missions, governmental actors must have access to secure satellite communication services, which is something commercial satellite communication services aren’t able to provide.
GOVSATCOM users will likely include border and maritime authorities, law enforcement agencies, civil protection forces, search and rescue services, disaster relief and humanitarian missions, authorised infrastructure operators and military forces. The service will be available to EU institutions, relevant agencies and EU Member States.
GOVSATCOM will also serve specific use cases, such as providing connectivity to the Arctic region and for Machine to Machine (M2M) and Internet of Things (IoT) communications. Furthermore, it will be a central component to the EU’s Secure Connectivity Initiative, which is expected to provide additional EU-owned satellite communications resources to complement existing assets.
With its multiorbital design, Secure Connectivity will allow low latency governmental communications, while its use of quantum technologies will take the security of GOVSATCOM services to the next level. With such capabilities, GOVSATCOM could play an even bigger role in the air traffic control infrastructure that will enable the autonomous and remotely piloted aircraft systems of tomorrow, including drones and air taxis.
Most importantly, by working in synergy with Galileo, EGNOS and Copernicus, GOVSATCOM will further enhance the EU Space Programme’s ability to keep European citizens safe and secure.
Media note: This feature can be republished without charge provided the European Union Agency for the Space Programme (EUSPA) 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 EUSPA website (http://www.euspa.europa.eu).
When disaster strikes, communication, information and location are key. With the addition of GOVSATCOM, the EU Space Programme provides all three.
Last summer, when Greece was ravaged by wildfires, public authorities relied on Copernicus’ Earth Observation services to detect and monitor the evolving situation. On the ground, firefighters and emergency first responders used EGNOS and Galileo to safely guide themselves through the smoke, fog and flames.
That same summer, when once-in-a-century floods in Germany, Belgium, the Netherlands and Luxembourg rendered transportation and communication infrastructure useless, satellite communication, working in synergy with Copernicus and European GNSS (EGNSS), provided rescue teams with the spatial awareness, connectivity and highly accurate positioning and navigation they needed to save lives.
But what happens when an incident occurs where there are no ground stations, either because they were destroyed (e.g., during an earthquake) or because they never existed in the first place (e.g., in remote regions such as the Arctic)? Or what if the end users require secure communication? Such is the case during cyber-attacks and other security-related incidents.
For situations like these, there’s GOVSATCOM.
GOVSATCOM is the fourth pillar of the EU Space Programme. While Copernicus and EGNSS provide the necessary data and positioning, some security incidents also require a means of communication that is robustly protected against interference, interception, intrusion and other risks. GOVSATCOM bridges this gap between the need for assured and secure communication and the capabilities already offered by Copernicus, Galileo and EGNOS.
Once active, GOVSATCOM will provide secure, cost-efficient communication capabilities to security and safety-critical missions, operations and infrastructure. The European Union Agency for the Space Programme (EUSPA) has been entrusted with the procurement of the secure operational ground segment (GOVSATCOM Hubs), its operations and the coordination of the user-related aspects of GOVSATCOM, all in close collaboration with Member States and other involved entities.
As a user-centric programme, GOVSATCOM is designed to meet the unique requirements of governmental applications, including those used for crisis management, surveillance and the management of key infrastructures. Further, to successfully execute their missions, governmental actors must have access to secure satellite communication services, which is something commercial satellite communication services aren’t able to provide.
GOVSATCOM users will likely include border and maritime authorities, law enforcement agencies, civil protection forces, search and rescue services, disaster relief and humanitarian missions, authorised infrastructure operators and military forces. The service will be available to EU institutions, relevant agencies and EU Member States.
GOVSATCOM will also serve specific use cases, such as providing connectivity to the Arctic region and for Machine to Machine (M2M) and Internet of Things (IoT) communications. Furthermore, it will be a central component to the EU’s Secure Connectivity Initiative, which is expected to provide additional EU-owned satellite communications resources to complement existing assets.
With its multiorbital design, Secure Connectivity will allow low latency governmental communications, while its use of quantum technologies will take the security of GOVSATCOM services to the next level. With such capabilities, GOVSATCOM could play an even bigger role in the air traffic control infrastructure that will enable the autonomous and remotely piloted aircraft systems of tomorrow, including drones and air taxis.
Most importantly, by working in synergy with Galileo, EGNOS and Copernicus, GOVSATCOM will further enhance the EU Space Programme’s ability to keep European citizens safe and secure.
Media note: This feature can be republished without charge provided the European Union Agency for the Space Programme (EUSPA) 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 EUSPA website (http://www.euspa.europa.eu).
Many of the experts that designed and oversaw the Galileo satnav system are now supporting cutting-edge European companies in the development of new navigation technologies and services. The result is ESA’s Navigation Innovation and Support Programme, NAVISP.
NAVISP is looking into all kinds of clever ideas about the future of navigation: ways to improve satellite navigation, alternative positioning systems and, new navigation services and applications. Working in partnership with European industry and researchers, more than 200 NAVISP projects have been initiated so far.
NAVISP is divided into three elements, the first looking into improving and expanding satellite navigation, as well as establishing novel ‘positioning, navigation and timing’ (PNT) services. NAVISP’s second element focuses on innovation for competitiveness, developing all kinds of new PNT products and services. Its third element covers support to Member State priorities, including support for national testbeds and programmes.
Ušetřete díky flexibilnímu licencování Autodesk Flex Token. Plaťte jen za skutečné využití CAD licencí libovolného produktu.
Zpráva Autodesk Flex Token – nové možnosti flexibilního licencování pochází z arkance-systems.cz.
České odborné veřejnosti je známo mnoho aplikací dostupných pod otevřeným kódem. Některé jsou také v češtině. Lokalizovat prostředí pro práci není sice nevyhnutelné, ale usnadňuje přístup i lidem, kteří mapové aplikace používají, ale nejsou profesionály. Počeštění zpříjemňuje učení a zlepšuje orientaci ve složitém rozhraní. U otevřených softwarů je počešťování průběžný, nekončící proces, podle toho, jak […]
The post Další mapové aplikace přeložené do češtiny appeared first on GISportal.cz.
Pokud nežije v úplném internetovém vakuu, tak už jste určitě narazili na hru Wordle – webovou slovní hru, vyvinutou Joshem Wardlem, ve které se hráči snaží uhodnout pětipísmenné slovo v šesti pokusech, a každý den hrají jiné slovo. Hra existuje v různých jazykových mutacích – včetně češtiny. Pokud Vás baví více geografické kvízy, zkuste Worldle […]
The post Wordle vs Worldle appeared first on GISportal.cz.
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AEC Magazine, UK
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ENR, USA
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ENR, US
Read the articleČeská informační agentura životního prostředí (CENIA) společně s VGHMÚř Dobruška oznamuje změnu licenčních podmínek pro datovou sadu Historická ortofotomapa (50. léta). Datová sada je nyní dostupná široké veřejnosti pod licencí CC-BY 4.0 (Uveďte původ 4.0 Mezinárodní). Při každém použití těchto dat je tedy nutné uvést licenci CC-BY 4.0, název díla a autory díla v tomto […]
The post Historická ortofotomapa z 50.let se otevírá (TZ) appeared first on GISportal.cz.
As of March 17, 2022, all smartphones sold in the European Union should be leveraging Galileo signals, in addition to other Global Navigation Satellite Systems. The addition of the EU positioning system to enhance the 112-calls location will result in faster response times and consequently, more lives saved.
The European 112-emergency number is operational in nearly all EU Member States, as well as other countries. People in danger can call it 24/7 to reach the fire brigade, medical assistance and the police. On February 11, which is European 112 Day, various awareness and networking activities are organised throughout the EU to promote the existence and use of Europe's single emergency number.
The majority of phone calls to the 112-emergency number are placed from mobile phones. These calls already support the sending of location information to emergency services. However, this information was not based on Global Navigation Satellite System (GNSS) capabilities until recently.
Three years ago, the Commission Delegated Regulation anticipated measures to get advantage of GNSS and WiFi location capabilities in smartphones placed on the European Union market from 17 March 2022 onward. This will enable smartphones to transfer caller location information from GNSS (at least Galileo) to the appropriate emergency service.
So far, in the event of a 112 call, the caller’s location information was established through identification technology based on the coverage area of a cellular network tower (cell-ID). The average accuracy of this information varies from two to ten kilometres, which can lead to significant search errors following emergency calls, often resulting in time wasted and potentially, lives lost. In contrast, location information based on GNSS provides an accuracy of down to a few metres. This level of accuracy will have a major impact in terms of response times, ultimately allowing for quicker intervention in emergency situations in which every second counts.
The ability for 112 to communicate a caller’s location to emergency services automatically is already being rolled out. The protocol designed for this purpose, called Advanced Mobile Location (AML) is currently being deployed across the European Union. When a caller dials 112 from their smartphone, AML uses the phone’s integrated functionalities and data from Galileo to accurately pinpoint the caller’s location and transmit it to a dedicated end-point, usually a Public Safety Answering Point (PSAP), which makes the caller location available to emergency responders in real-time.
According to the European Emergency Number Association (EENA), at least 18 EU Member States have already completed the AML deployment while others are in the process of doing so. This implementation is thanks to EU initiatives and projects such as the Help 112 project, which was set up to evaluate the merits of handset-based technologies in improving the location of emergency callers..
“On the occasion of European 112 Day, I would like to reiterate once again that the EU Space Programme and in this particular case, Galileo, were conceived to benefit and protect EU citizens. The EC regulation which shall enter into force late next month is another confirmation of the added value EU space data brings to our daily lives,’’ said EUSPA Executive Director, Rodrigo da Costa. ‘’On this day, let’s also praise our real-life heroes, emergency responders, across the EU for their courage and bravery,’’ he concluded.
As of 17 March 2022, all smartphones placed in the European single market should be leveraging Galileo signals, in addition to other Global Navigation Satellite Systems. The addition of the EU positioning system to enhance the 112-calls location will result in faster response times and consequently, more lives saved.
The European 112-emergency number is operational in nearly all EU Member States, as well as other countries. People in danger can call it 24/7 to reach the fire brigade, medical assistance and the police. On February 11, which is European 112 Day, various awareness and networking activities are organised throughout the EU to promote the existence and use of Europe's single emergency number.
The majority of phone calls to the 112-emergency number are placed from mobile phones. These calls already support the sending of location information to emergency services. However, this information was not based on Global Navigation Satellite System (GNSS) capabilities until recently.
Three years ago, the Commission Delegated Regulation anticipated measures to get advantage of GNSS and WiFi location capabilities in smartphones placed on the European Union market from 17 March 2022 onward. This will enable smartphones to transfer caller location information from GNSS (at least Galileo) to the appropriate emergency service.
So far, in the event of a 112 call, the caller’s location information was established through identification technology based on the coverage area of a cellular network tower (cell-ID). The average accuracy of this information varies from two to ten kilometres, which can lead to significant search errors following emergency calls, often resulting in time wasted and potentially, lives lost. In contrast, location information based on GNSS provides an accuracy of down to a few metres. This level of accuracy will have a major impact in terms of response times, ultimately allowing for quicker intervention in emergency situations in which every second counts.
The ability for 112 to communicate a caller’s location to emergency services automatically is already being rolled out. The protocol designed for this purpose, called Advanced Mobile Location (AML) is currently being deployed across the European Union. When a caller dials 112 from their smartphone, AML uses the phone’s integrated functionalities and data from Galileo to accurately pinpoint the caller’s location and transmit it to a dedicated end-point, usually a Public Safety Answering Point (PSAP), which makes the caller location available to emergency responders in real-time.
According to the European Emergency Number Association (EENA), at least 18 EU Member States have already completed the AML deployment while others are in the process of doing so. This implementation is thanks to EU initiatives and projects such as the Help 112 project, which was set up to evaluate the merits of handset-based technologies in improving the location of emergency callers..
“On the occasion of European 112 Day, I would like to reiterate once again that the EU Space Programme and in this particular case, Galileo, were conceived to benefit and protect EU citizens. The EC regulation which shall enter into force late next month is another confirmation of the added value EU space data brings to our daily lives,’’ said EUSPA Executive Director, Rodrigo da Costa. ‘’On this day, let’s also praise our real-life heroes, emergency responders, across the EU for their courage and bravery,’’ he concluded.
As of March 17, 2022, all smartphones sold in the European Union should be leveraging Galileo signals, in addition to other Global Navigation Satellite Systems. The addition of the EU positioning system to enhance the 112-calls location will result in faster response times and consequently, more lives saved.
The European 112-emergency number is operational in nearly all EU Member States, as well as other countries. People in danger can call it 24/7 to reach the fire brigade, medical assistance and the police. On February 11, which is European 112 Day, various awareness and networking activities are organised throughout the EU to promote the existence and use of Europe's single emergency number.
The majority of phone calls to the 112-emergency number are placed from mobile phones. These calls already support the sending of location information to emergency services. However, this information was not based on Global Navigation Satellite System (GNSS) capabilities until recently.
Three years ago, the Commission Delegated Regulation anticipated measures to get advantage of GNSS and WiFi location capabilities in smartphones placed on the European Union market from 17 March 2022 onward. This will enable smartphones to transfer caller location information from GNSS (at least Galileo) to the appropriate emergency service.
So far, in the event of a 112 call, the caller’s location information was established through identification technology based on the coverage area of a cellular network tower (cell-ID). The average accuracy of this information varies from two to ten kilometres, which can lead to significant search errors following emergency calls, often resulting in time wasted and potentially, lives lost. In contrast, location information based on GNSS provides an accuracy of down to a few metres. This level of accuracy will have a major impact in terms of response times, ultimately allowing for quicker intervention in emergency situations in which every second counts.
The ability for 112 to communicate a caller’s location to emergency services automatically is already being rolled out. The protocol designed for this purpose, called Advanced Mobile Location (AML) is currently being deployed across the European Union. When a caller dials 112 from their smartphone, AML uses the phone’s integrated functionalities and data from Galileo to accurately pinpoint the caller’s location and transmit it to a dedicated end-point, usually a Public Safety Answering Point (PSAP), which makes the caller location available to emergency responders in real-time.
According to the European Emergency Number Association (EENA), at least 18 EU Member States have already completed the AML deployment while others are in the process of doing so. This implementation is thanks to EU initiatives and projects such as the Help 112 project, which was set up to evaluate the merits of handset-based technologies in improving the location of emergency callers..
“On the occasion of European 112 Day, I would like to reiterate once again that the EU Space Programme and in this particular case, Galileo, were conceived to benefit and protect EU citizens. The EC regulation which shall enter into force late next month is another confirmation of the added value EU space data brings to our daily lives,’’ said EUSPA Executive Director, Rodrigo da Costa. ‘’On this day, let’s also praise our real-life heroes, emergency responders, across the EU for their courage and bravery,’’ he concluded.
As of 17 March 2022, all smartphones placed in the European single market should be leveraging Galileo signals, in addition to other Global Navigation Satellite Systems. The addition of the EU positioning system to enhance the 112-calls location will result in faster response times and consequently, more lives saved.
The European 112-emergency number is operational in nearly all EU Member States, as well as other countries. People in danger can call it 24/7 to reach the fire brigade, medical assistance and the police.
The majority of phone calls to the 112-emergency number are placed from mobile phones. These calls already support the sending of location information to emergency services. However, this information was not based on Global Navigation Satellite System (GNSS) capabilities until recently.
Three years ago, the Commission Delegated Regulation anticipated measures to get advantage of GNSS and WiFi location capabilities in smartphones placed on the European Union market from 17 March 2022 onward. This will enable smartphones to transfer caller location information from GNSS (at least Galileo) to the appropriate emergency service.
So far, in the event of a 112 call, the caller’s location information was established through identification technology based on the coverage area of a cellular network tower (cell-ID). The average accuracy of this information varies from two to ten kilometres, which can lead to significant search errors following emergency calls, often resulting in time wasted and potentially, lives lost. In contrast, location information based on GNSS provides an accuracy of down to a few metres. This level of accuracy will have a major impact in terms of response times, ultimately allowing for quicker intervention in emergency situations in which every second counts.
The ability for 112 to communicate a caller’s location to emergency services automatically is already being rolled out. The protocol designed for this purpose, called Advanced Mobile Location (AML) is currently being deployed across the European Union. When a caller dials 112 from their smartphone, AML uses the phone’s integrated functionalities and data from Galileo to accurately pinpoint the caller’s location and transmit it to a dedicated end-point, usually a Public Safety Answering Point (PSAP), which makes the caller location available to emergency responders in real-time.
According to the European Emergency Number Association (EENA), at least 18 EU Member States have already completed the AML deployment while others are in the process of doing so. This implementation is thanks to EU initiatives and projects such as the Help 112 project, which was set up to evaluate the merits of handset-based technologies in improving the location of emergency callers..
“On the occasion of European 112 Day, I would like to reiterate once again that the EU Space Programme and in this particular case, Galileo, were conceived to benefit and protect EU citizens. The EC regulation which enters into force today is another confirmation of the added value EU space data brings to our daily lives,’’ said EUSPA Executive Director, Rodrigo da Costa. ‘’On this day, let’s also praise our real-life heroes, emergency responders, across the EU for their courage and bravery,’’ he concluded.
These days, everybody is having a cell phone. Mobile users are expanding step by step...
The post 4 Key features of mobile app development appeared first on Siemens Blog Network.
Hereford, and its surrounding colourful patchwork of agricultural fields, is featured in this Copernicus Sentinel-2 image.
O aplikaci MapSwipe píšeme často ve spojitosti v Mapathony Lékařů bez hranice, kde se na OpenStreetMap mapují oblasti, které zatím nejsou (či velmi jsou špatně) pokryty na klasických mapách. Nyní máme díky překladu Jiřího Podhoreckého k dispozici i aplikaci v českém překladu. Aplikace je k dispozici pro iOS i android. MapSwipe je mobilní aplikace s […]
The post MapSwipe konečně v češtině! appeared first on GISportal.cz.
Do 28. února 2022 mohou studenti posledního ročníku vysokých škol na magisterském stupni, a také čerství absolventi magisterského studia v technických, přírodovědných či ekonomických oborech zasílat přihlášky do programu stáží Young Graduate Trainee Evropské kosmické agentury. Program Young Graduate Trainee (YGT), který je jednoletý s možností prodloužení až na 2 roky, nabízí jedinečnou možnost pracovat na inspirativních kosmických projektech […]
The post Stáže ESA pro magisterské studium appeared first on Katedra geoinformatiky.
Vážení zákazníci,
dovolujeme si Vám nabídnout program TurboCAD PLATINUM 27 CZ pro kreslení ve 2D / 3D včetně vizualizací s akční slevou a bonusy do 26. 2.. 2022.
The post TurboCAD PLATINUM 27 CZ v akční ceně s bonusy do 19. 02. 2022 appeared first on ŠPINAR – software.
Sea-level rise is arguably one of the most serious consequences of the climate crisis. While using satellite data to monitor how the height of the sea is changing provides critical evidence for decision-making, satellites are also essential to measuring the individual components, such as seawater temperature and glacier melt, that contribute to the overall rise. Confidence in the accuracy of these separate measures is key. ESA-funded research now confirms that the figures match up.
Mapové aplikace s přímým vstupem do katastru nemovitostí, pasporty veřejného osvětlení či inženýrských sítí má v Česku velké množství měst a obcí. Své využití však najdou i u větších územních celků, například v rámci mikroregionů. Jedním z prvních takových je Mikroregion Šternbersko, kde mohou ze společné mapové aplikace těžit třeba při územním plánování. Využití najde ale i při dalších […]
The post Společná mapová aplikace pro celý mikroregion. Šternbersko ukazuje, jakým směrem se mohou svazky obcí vydat (TZ) appeared first on GISportal.cz.
Firma Gefos, která je v České republice prodejcem měřické techniky Leica Geosystems, zveřejnila detaily letošní roadshow Leica Tour 2022. První město, ve kterém novinky Leica Geosystems budou představeny, je Liberec v pondělí 28. února. (Všechna místa Leica Tour 2022 máme zde.) Ačkoliv je akce zdarma, pořadatelé prosí, zda byste se jim mohli ozvat, aby věděli, kolik mají připravit […]
The post Podrobnosti o Leica Tour 2022, která letos začne 28. února v Liberci appeared first on Zeměměřič.
The European Union Agency for the Space Programme (EUSPA) is launching a testing campaign for INAV improvements implementation and hereby invites external stakeholders to express their interest in participating in such testing campaign.
The testing will cover any of the three I/NAV improvements (SSP, FEC-2, RedCED), that will be tested in laboratory using simulated realistic scenarios, including open sky as well as impaired environments. The tests will allow the participants to have confirmation of the correct implementation of the OSSISICD 2.0. In case of specific interest, legacy receivers (e.g. not implementing I/NAV improvements) could be also tested, solely at the scope of confirming that they are not impacted anyhow by the introduction of the new I/NAV capabilities (backward compatibility is in any case guaranteed “by design” for any receiver that is fully compliant with the Galileo OS SIS ICD provisions, and referring in particular to section 4.1.2).
The characteristics of the testing campaign are described here.
The interested participants may be invited to provide their product(s) before 15 March, 1 May or 1 August to the premises indicated below according to the terms and conditions that will be communicated by the agency and be ready to provide any remote technical assistance needed during the testing as well as all the necessary interface documentation required for the testing. Any further detailed provision, including the possibility to provide the testing laboratories with ad-hoc receiver development platforms facilitating the testing activities, will be discussed with the interested participants.
The tests will be executed at the laboratories of the European Commission’s Joint Research Centre in Ispra, Italy, and of the European Space Agency ESA/ESTEC in Noordwijk, The Netherlands. Each applicant will be assigned by EUSPA to any of the two laboratories depending on the specific conditions and availability.
Testing is currently foreseen to be done in three batches, starting on 15 March, 1 May and 1 August 2022. The EUSPA reserves the right to change the scope, and timeline of the procedure.
If you are interested in participating in the testing campaign above, please express your interest by sending an email before 25/02/2022, 17:00 (Prague local time) to the following email address: market@euspa.europa.eu. The subject of the email shall be “INAV improvements implementation testing campaign”.
Media note: This feature can be republished without charge provided the European Union Agency for the Space Programme (EUSPA) 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 EUSPA website (http://www.euspa.europa.eu).
The European Union Agency for the Space Programme (EUSPA) is launching a testing campaign for INAV improvements implementation and hereby invites external stakeholders to express their interest in participating in such testing campaign.
The testing will cover any of the three I/NAV improvements (SSP, FEC-2, RedCED), that will be tested in laboratory using simulated realistic scenarios, including open sky as well as impaired environments. The tests will allow the participants to have confirmation of the correct implementation of the OSSISICD 2.0. In case of specific interest, legacy receivers (e.g. not implementing I/NAV improvements) could be also tested, solely at the scope of confirming that they are not impacted anyhow by the introduction of the new I/NAV capabilities (backward compatibility is in any case guaranteed “by design” for any receiver that is fully compliant with the Galileo OS SIS ICD provisions, and referring in particular to section 4.1.2).
The characteristics of the testing campaign are described here.
The interested participants may be invited to provide their product(s) before 15 March, 1 May or 1 August to the premises indicated below according to the terms and conditions that will be communicated by the agency and be ready to provide any remote technical assistance needed during the testing as well as all the necessary interface documentation required for the testing. Any further detailed provision, including the possibility to provide the testing laboratories with ad-hoc receiver development platforms facilitating the testing activities, will be discussed with the interested participants.
The tests will be executed at the laboratories of the European Commission’s Joint Research Centre in Ispra, Italy, and of the European Space Agency ESA/ESTEC in Noordwijk, The Netherlands. Each applicant will be assigned by EUSPA to any of the two laboratories depending on the specific conditions and availability.
Testing is currently foreseen to be done in three batches, starting on 15 March, 1 May and 1 August 2022. The EUSPA reserves the right to change the scope, and timeline of the procedure.
If you are interested in participating in the testing campaign above, please express your interest by sending an email before 25/02/2022, 17:00 (Prague local time) to the following email address: market@euspa.europa.eu. The subject of the email shall be “INAV improvements implementation testing campaign”.
Media note: This feature can be republished without charge provided the European Union Agency for the Space Programme (EUSPA) 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 EUSPA website (http://www.euspa.europa.eu).
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Climate models are an important tool for scientists to understand our past climate and provide projections of future change. As such, they are in increasing demand as part of efforts to avert global warming and reduce risks associated with environmental change. To meet this demand, the World Climate Research Programme will open a new international office in the United Kingdom on 1 March 2022 that will coordinate the programme’s Climate Model Intercomparison Project.
Pasport pozemních komunikací je evidence pozemních komunikací vedená jejich správci. Pasporty mohou sloužit správcům a vlastníkům komunikací v jejich efektivní správě, zejména jsou-li v digitalizované podobě, nejlépe pak v geografickém informačním systému. To může být finančně nákladné, což představuje zejména pro malé obce určitou překážku. Pasport využijí i občané a jiné soukromé subjekty Dobře zpracovaný pasport v GIS […]
The post Digitalizace pasportu komunikací appeared first on GISportal.cz.
V rámci dalšího KGItalku se vám speciální host Hugo Poelman, který působí přímo v Evropské komisi (DG REGIO – Policy Development and Economic Analysis) představí problematiku EU policies v propojení s GIS. Těšte se, bude to zajímavé. Tak se nezapomeňte připojit, záznam opět bohužel nebude. Budeme se těšit. Podrobnosti zde: Hugo Poelman (Evropská […]
The post Přednáška Huga Poelmana appeared first on Katedra geoinformatiky.
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