How, in the face of many differing national bureaucracies, research traditions and peer review practices, should they build a new kind of community of knowledge and discovery? How should they encourage partnerships that make the best of the intellectual firepower of researchers in 27 member countries and with partnerships in 17 non-European countries including the US, India, China, Brazil, Korea, Japan and even New Zealand? Or, to put it another way, is the European Research Area just a first step towards a global research area: in acronym terms a move from ERA to GLOREA?
The European Science Foundation (ESF) opened its first ever science policy conference in Strasbourg on November 28 and wrestled with questions that, for the moment, could only be answered with other questions. Should researchers be directed to tackle the obvious problems that face society - the menace of climate change, for instance, or the problem of maintaining health in an increasingly elderly populace? Or should researchers be encouraged to explore possibilities that no one had ever imagined?
"More importantly, more difficult, how do you apply science to the possibilities that might be there but you don't really know about," said Ian Halliday, President of the ESF, and a theoretical particle physicist. "My favourite example is the Americans, taking to, and grabbing, everybody's technology to make the Internet work. Think of the impact on society. That wasn't a solution to societal need. That was: there's something interesting over here that's more than just mature science. How do we make it work, how do we turn it into something."
Take the problem of what used to be considered healthy competition, but in a close-knit Europe looks increasingly like duplication of effort, or fragmentation of research funds. "What do I mean by duplication? I mean the worry in the UK or Sweden or wherever that you are funding something that is really identical to something funded in Italy or whatever. Again let me use my background. The UK had the best dark matter experiment in Europe. So did France and so did Italy. Those cannot all be true. There is real suspicion that the money could have been spent better. And that is repeated many times across Europe. So how do we get that kind of visibility and transparency?"
Dark matter makes up more than 20 per cent of the universe. All the stars and all the galaxies account for only about 4 per cent of creation. More than 70 per cent of the mass of the universe is concealed in a phenomenon sometimes called dark energy, or quintessence, or antigravity: a force so mysterious that no physicist has any confidence that it will ever be understood. Most of the galaxies, however, are embedded in an invisible but massive substance known as dark matter, and most researchers believe that, sooner or later, they will begin to identify it. Professor Halliday's point is not that any one experiment is more likely to succeed; it is that to make the best of its intellectual effort, a European research council should have been able to consider all three projects, and endorse one of them. The challenge was to get the most money to the best scientists to produce the fastest and most effective research. "I suspect much talent in Europe does not have that kind of funding," he said.
Colin Blakemore, an Oxford neuroscientist and until October head of the UK's medical research council, had a different set of questions about the new shape of scientific research in Europe. "One shouldn't lose sight of the broader goal: that integration and co-operation are not ends in themselves. They are mean to the greater benefit of science. Or are they always? Is it absolutely essential that to be successful in science Europe must have enforced trans-national co-operation? It is worth reflecting on that," he said.
Sometimes, that question was simply answered. Some scientific ventures -the huge atom-smashing collider at CERN in Geneva, for example, the human genome project and the European bioinformatics institute - were simply too big and too costly for any single university or country to attempt. There were clinical trials that worked best as transnational co-operations, and vaccine partnerships that demanded international effort. Space programmes and fusion research were also obvious examples of successful and necessary co-operations.
"The examples are there but notice that in each case one can trace the need for co-operation to a scientific objective and goal rather than enforced co-operation for its own sake," Prof Blakemore said. "We have to be very cautious, in recognising that the driver for co-operation is not co-operation itself, but it is the goal of supporting science better where co-operation is essential."
To download photos from the conference please visit http://www.esf.org/media-centre/photogallery/esf-science-policy-conference.html
Thomas Lau | alfa
Plants are networkers
19.06.2017 | Institut für Pflanzenbiochemie
Digital Survival Training for Executives
13.06.2017 | NIT Northern Institute of Technology Management gGmbH
An international team of scientists has proposed a new multi-disciplinary approach in which an array of new technologies will allow us to map biodiversity and the risks that wildlife is facing at the scale of whole landscapes. The findings are published in Nature Ecology and Evolution. This international research is led by the Kunming Institute of Zoology from China, University of East Anglia, University of Leicester and the Leibniz Institute for Zoo and Wildlife Research.
Using a combination of satellite and ground data, the team proposes that it is now possible to map biodiversity with an accuracy that has not been previously...
Heatwaves in the Arctic, longer periods of vegetation in Europe, severe floods in West Africa – starting in 2021, scientists want to explore the emissions of the greenhouse gas methane with the German-French satellite MERLIN. This is made possible by a new robust laser system of the Fraunhofer Institute for Laser Technology ILT in Aachen, which achieves unprecedented measurement accuracy.
Methane is primarily the result of the decomposition of organic matter. The gas has a 25 times greater warming potential than carbon dioxide, but is not as...
Hydrogen is regarded as the energy source of the future: It is produced with solar power and can be used to generate heat and electricity in fuel cells. Empa researchers have now succeeded in decoding the movement of hydrogen ions in crystals – a key step towards more efficient energy conversion in the hydrogen industry of tomorrow.
As charge carriers, electrons and ions play the leading role in electrochemical energy storage devices and converters such as batteries and fuel cells. Proton...
Scientists from the Excellence Cluster Universe at the Ludwig-Maximilians-Universität Munich have establised "Cosmowebportal", a unique data centre for cosmological simulations located at the Leibniz Supercomputing Centre (LRZ) of the Bavarian Academy of Sciences. The complete results of a series of large hydrodynamical cosmological simulations are available, with data volumes typically exceeding several hundred terabytes. Scientists worldwide can interactively explore these complex simulations via a web interface and directly access the results.
With current telescopes, scientists can observe our Universe’s galaxies and galaxy clusters and their distribution along an invisible cosmic web. From the...
Temperature measurements possible even on the smallest scale / Molecular ruby for use in material sciences, biology, and medicine
Chemists at Johannes Gutenberg University Mainz (JGU) in cooperation with researchers of the German Federal Institute for Materials Research and Testing (BAM)...
19.06.2017 | Event News
13.06.2017 | Event News
13.06.2017 | Event News
29.06.2017 | Power and Electrical Engineering
29.06.2017 | Life Sciences
29.06.2017 | Seminars Workshops