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Spacecraft follow the same tendency as our computers to become continuously smaller, but more connected. In his ERC grant “NetSat”, Klaus Schilling, from the Zentrum für Telematik in Würzburg, studies control strategies for small pico-satellites in formation, in order to achieve the best performance through their cooperation.
Space has a wealth of resources for humanity. Scientific missions enable new discoveries and increase knowledge of our solar system. Satellites orbiting around the Earth provide us with a broad range of services for telecommunications, weather forecasting, marine and air traffic, forest mapping, etc. However, intense space activity comes at a cost both in terms of energy consumption and dangerous space debris produced.
Can highly automated vehicles fare better than traditional cars in traffic gridlock conditions? Cooperation between vehicle intelligent transport systems via connected vehicles may provide a solution.
Will spacecraft follow a similar evolution to computers? While information processing in the last century was performed by large mainframe computers, today, networked smart phones dominate the market. In spacecraft engineering a similar paradigm shift is apparent: from traditional single, large, and multifunctional satellites towards groups of very small satellites that cooperate together. Professor Klaus Schilling, in his ERC project “NetSat”, addresses crucial challenges to enable small satellite formations to self-organise. This offers innovative application perspectives in areas like Earth observation, science exploration or telecommunications.
Nature is a major source of inspiration for scientists. ERC grantee Giulia Lanzara is one of them. The unique sensing and shaping abilities of birds, dolphins and other living creatures inspired her to engineer novel multifunctional materials which could make a difference in a wide variety of industrial fields.
Metal fatigue and ice-layer accumulation are challenges faced by the aviation industry and prove costly in terms of fuel waste. Sometimes nature can provide solutions to problems such as these. ERC grantee Nicola Pugno combines biological observations with nanotechnology to create some of the most remarkable materials in the world.
Slavery represents a dark and unclosed page in the history of mankind. Even if legally abolished by all countries of the world, its legacies shape the present in a plurality of ways and often overlap with the phenomena that scholars, activists and policy-makers target as new slaveries. Which are the consequences of slavery after its legal death? Should new forms of labor exploitation and human bondage also be read in this key? Or are they the result of recent economic, political and social transformations?
The discovery, conquest, and subsequent colonization of the Americas gave rise to surprising, multifaceted encounters between the Old and New Worlds. These encounters were not limited to the first-contact phase or to the military subjugation of new lands by the Europeans. They have been long processes of cross-cultural communication—in which both sides participated equally—that continued to develop through the colonial and postcolonial eras up to the present day.
Since Leonardo da Vinci, scientists and engineers have investigated how things break or irreversibly deform, with a view to discovering unbreakable materials. This issue is at the core of Stefano Zapperi’s research. In 2011, he received an ERC Advanced grant to explore the response of materials when they are exposed to an external driving force. The long-term outcomes of his research could contribute to enhancing the safety of materials and daily products.