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The paper reviews the evolution of Earth Observation systems in Europe and Worldwide and analyses the potential impact of their performance in support of emergency response services. Earth Observation satellites play already a significant role in supporting the action of first responders in case of major disasters. The main principle is the coordinated use of satellites in order to ensure a rapid response and the timely delivery of images and geospatial information of the area affected by the event. The first part of the paper reviews the main instruments and evaluates their current performance. The International Charter “Space and Major Disasters”, signed in October 2000, was the first international initiative aimed at establishing a unified system for the acquisition of space data. The charter is a cooperation agreement between space agencies and operators of space systems. At regional level, a similar instrument exists in Asia: Sentinel-Asia. In the frame of the European programme Copernicus, the emergency management service was launched in 2009. Geo-information products derived from space imagery are delivered during all phases of the emergency management cycle, in either rush or non-rush mode, free of charge for the users. In both cases, the capacities were historically drawn from national missions, funded with public money and directly operated by the space agencies or by national operators. The paper focuses on the performance of the space infrastructure (satellites and ground segments). Several trends may have a significant impact on the current performance: – The increasing number of space systems which are privately-owned and managed by commercial operators. – The emergence in Europe of shared-ownership or community-owned systems. Copernicus Sentinel missions (Copernicus) or Eumetsat satellites are two typical examples. – The development of dual-use capacities and the sovereignty dimension of these systems. – The development of unmanned airborne vehicles (UAVs) for civil applications. – The development of social media and crowd-based initiatives for humanitarian aid and emergency response. – Possible disruptions, such as large LEO constellations or GEO infrastructures enabling persistent observation. A common feature is the increased number of information sources and the higher real time dimension. Typical scenarios for the future are described and their likelihood is discussed, including political acceptance and the international dimension. Aside from rapid technological evolutions, two main driving factors are the capacity of national and international stakeholders to agree on governance and the sustainability of the economic models. [ABSTRACT FROM AUTHOR]

The Rosetta mission is a cornerstone mission of the Horizon 2000 programme of the European Space Agency. It will be launched to comet 46P/Wirtanen in January 2003. This mission is the first of a series of planetary missions, including Mars Express, Smart-I (to the Moon), and BepiColombo (to Mercury).All these missions have similar requirements for their scientific operations. The Experiments H/W and S/W are developed by Principal Investigators, working at scientific institutes. They are also responsible for the operation of their experiments and for the generation of related operational documentation. The Science Operations Centre (SOC) has the task to consolidate the inputs of the different experimenters and the Lander and ensure that the resulting science operations timeline is free of conflicts. It forwards this timeline to the Mission Operations Centre (MOC) which combines the science operations with the operations of the other spacecraft subsystems and the orbit and attitude of the spacecraft. The MOC is also responsible for uplinking the operational command sequences to the spacecraft and for returning the received telemetry to the user.In a collaboration between the team of the Rosetta Project Scientist at the Research and Science Support Department of ESA/ESTEC and the European Space Operations Centre (ESA/ESOC), a concept for the SOC/MOC and their interfaces was developed for the Rosetta mission. This concept is generic enough to allow its implementation also for the other planetary missions. The design phase is now complete, and implementation is on-going. This paper briefly presents the architecture of the complex ground segment, concentrating on the elements required for planning of scientific operations, and then details the software tools EPS (Experiment Planning System) and PTB (Project Test Bed) which are used in the planning process. [Copyright &y& Elsevier]