By using “unusual” optic fibres in a novel fashion, an international team of researchers led by the International School for Advanced Studies (SISSA) in Trieste, scrutinized the response to light of rods, the light-sensitive cells of the retina, and demonstrated that the intensity of response varies according to the region of the cell hit by the light.
Collaborators and friends of John Nicholls, pioneer of neurobiology studies and Professor at the International School for Advanced Studies (SISSA) of Trieste, celebrate the publication of his autobiographical book “Pioneers of Neurobiology: My Brilliant Eccentric Heroes”, a very personal take on the evolution of neurobiology, but especially on the protagonists of this field of research, today one of the most important in neuroscience. The event is open to the public and will be held in English.
June 29-30, 2015
SISSA, Big Meeting Room, 7th floor
Via Bonomea 265, Trieste
SISSA will host a workshop entitled “Semantic processing and its disorders” in honor of Prof. Tim Shallice. Alfonso Caramazza, Maria Gorno-Tempini, Alex Martin, Morris Moscovitch, Matthew Lambon-Ralph, David Plaut, Caterina Silveri, Lorraine Tyler, Gabriella Vigliocco and others will attend the event.
We learn how our world works by observing the frequency of events: if (almost) every time I press a button a light comes on, by repeating the same experience over and over again I will learn that to turn on the light I need to press that button. In addition to this sort of “statistical evaluation” of observed events, there is another very powerful instrument that the brain uses for learning and that sometimes clashes with the former: communication.
The hope is to be able, one day, to fight the pathogenic action of the amyloid-beta protein, whose build-up is associated with Alzheimer’s disease. In the meantime, scientists (including a group from the International School for Advanced Studies, SISSA, in Trieste) have synthesised the knowledge acquired about this protein over the last few decades in a review paper that is destined to become a milestone for future research.
Guido Martinelli, Director of the International School for Advanced Studies (SISSA) of Trieste, has been appointed to the Scientific Policy Committee of CERN in Geneva, a prestigious appointment given solely on the basis of scientific competence. The appointment of the School’s Director confirms once again the high international standing of SISSA’s scientific personnel.
SISSA has received European Community funding equivalent to 18 million hours of supercomputing, corresponding to almost half the hours that the SISSA supercomputer, inaugurated last September, can provide in a whole year. The grant was awarded thanks to a research project in particle physics. SISSA is placing high stakes on high performance computing, as also confirmed by the second edition of the Master in High Performance Computing (MHPC) which has just opened enrolments.
Trefoil, Savoy, or simple … how do you fashion a “molecular” knot that has one of these shapes? Or better still, what are the most suitable “building blocks” for enabling the knot to assemble itself? A team of scientists coordinated by the International School for Advanced Studies (SISSA) of Trieste has studied and catalogued the shapes that molecular building blocks should have so as to be able to assemble spontaneously into knots having specific forms, each with a possible utility in nanotechnology. The study has been published in Nature Communications.
Wednesday February 25th the elections of the new Director of the International School for Advanced Studies (SISSA) in Trieste were held on the School premises. Stefano Ruffo, professor of Structure of Matter at the University of Florence will be replacing Guido Martinelli, who has led the School for the past five years, and will take up office at SISSA on November 1st 2015.
Corannulene is a carbon molecule with a unique shape (similar to the better known fullerene) and promising properties. A team of scientists from SISSA and the University of Zurich carried out computer simulations of the molecule’s properties and discovered that it might help overcome the difficulties building molecular circuits (i.e., of the size of molecules). The study has just been published in Physical Chemistry Chemical Physics.