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Introduction

More than 30-year operational satellite data have already been used for monitoring land, ocean and atmosphere. These applications have contributed to improve sustainable economy, produce healthy environment and enhance human life. The Advanced Research Workshop sponsored by NATO and organized by the USA’s National Oceanic and Atmospheric Administration and Ukrainian’s Space Agency bring the scientists with the most mature research designed for practical use. The goals were to select those which is used for services today and identify the areas to expand research and services. Scientific and application results of the Workshop presented in this book can be used today in agriculture, forestry, water resources, healthy coastal life and fisheries, climate and land cover change, anthropogenic activities and others. The presented papers provide information on how to use operational satellites and in situ measurements for early detection of large-scale droughts, floods and fires, diagnose crop and pasture annual losses, predict periods with health/unhealthy vegetation based on such climate forcing events as ENSO, monitor air quality and geomagnetic activities, assess land cover trends in responce to global warming etc. The available satellite/ground information and method is currently warn with a lead time sufficient to respond, recover and protect.

Keywords

Climate Forcing, Change and Adaptation Drought and Flood Environmental Security Food Security Satellite Long Records Sustainable Development

Using slow diffusion methods at room temperature, five uranium coordination polymers were obtained, which either employ glutarate (Glut), terephthalate (TP), or 2-aminoterephthalate (TPNH₂) as bridging systems. Four of these networks are based on the uranyl(VI)-unit, UO₂²⁺, and one formed through the integration of tetravalent uranium as the coordinating metal center. [[UO₂](TP)(H₂O)₂]·2THF (1) arranges as intermeshed one-dimensional (1D) infinite linear chains, locked into a three-dimensional (3D) network through hydrogen bonds with a uninodal 4-coordinated uom topology. [[UO₂](TPNH₂)(H₂O)₂]·2H₂O (2) assembles as intermeshed two-dimensional (2D) layers, also stabilized as a 3D network through hydrogen bonding with a 2-nodal 4-coordinated pts network topology. Na₂[[UO₂]₂(TP)₃]·9H₂O (3) forms parallel layers that are stacked in an AB pattern. Layers possess the uninodal 3-coordinate honeycomb (hcb) motif. Na₂[[UO₂]₂(Glut)₃]·8H₂O (4) assembles as a 3D-coordination network with a uninodal 3-c srs (SrSi₂) topology. The fifth compound contains uranium(IV) and the glutarate entity; U₆(NO₃)₄(Glut)₄(O)₄(OH)₄(H₂O)₆·12H₂O (5). The long-range structure of 5 adopts a 3D open framework, as it includes the flexible glutarate linker, in which U₆O₈ secondary building units assemble as U₆O₃₈ superclusters. These clusters are interlinked by the glutarate spacers resulting in a body centered cubic (bcu) topology.