Catalogue, released during the January 2011 Planck conference in Paris. On 5 May 2014 a map of the galaxy's magnetic field created using Planck was published. The Planck team and principal investigators Nazzareno Mandolesi and Jean-Loup Puget shared the 2018 Gruber Prize in Cosmology. Puget was also awarded the 2018 Shaw Prize in Astronomy. 2013 data release On 21 March 2013, the European-led research team behind the Planck cosmology probe released the mission's all-sky map of the cosmic microwave background. This map suggests the Universe is slightly older than thought: according to the map, subtle fluctuations in temperature were imprinted on the deep sky when the Universe was about 370,000 years old. The imprint reflects ripples that arose as early in the existence of the Universe as the first nonillionth (10−30) of a second. It is theorised that these ripples gave rise to the present vast cosmic web of galactic clusters and dark matter. According to the team, the Universe is billion-years-old, and contains ordinary matter, dark matter and dark energy. The Hubble constant was also measured to be . 2015 data release Results from an analysis of Planck full mission were made public on 1 December 2014 at a conference in Ferrara, Italy. A full set of papers detailing the mission results were released in February 2015. Some of the results include: More agreement with previous WMAP results on parameters such as the density and distribution of matter in the Universe, as well as more accurate results with less margin of error. Confirmation of the Universe having a 26% content of dark matter. These results also raise related questions about the positron excess over electrons detected by the Alpha Magnetic Spectrometer, an experiment on the International Space Station. Previous research suggested that positrons could be created by the collision of dark matter particles, which could only occur if the probability of dark matter collisions is significantly higher now than in the early Universe. Planck data suggests that the probability of such collisions must remain constant over time to account for the structure of the Universe, negating the previous theory. Validation of the simplest models of inflation, thus giving the Lambda-CDM model stronger support. That there are likely only three types of neutrinos, with a fourth proposed sterile neutrino unlikely to exist. Project scientists worked too with BICEP2 scientists to release joint research in 2015 answering whether a signal detected