IRAM is an international research institute for radio astronomy. Its overall objective is to explore the universe and to study its origins and evolution.

Founded in 1979, IRAM’s headquarters are located in Grenoble. With a staff of more than 120 scientists, engineers, technicians and administrative personnel, IRAM maintains and develops two observatories: the 30-meter telescope located on Pico Veleta near Granada in Spain, and the NOEMA interferometer (an array of currently ten 15-meter telescopes) in the French Alps. Both instruments are prime facilities for radio astronomy and among the most powerful observatories today operating at millimetre wavelengths. [...]

October 28, 2019
A revised timeline for planetary formation? Sounding the cosmic dust around young stars
An international team led by researchers from the CEA Paris-Saclay Astrophysics Department (DAp) has probed for the first time the dust envelopes surrounding stars in formation thanks to the large NOEMA interferometer. Surprisingly, the researchers discovered the presence of large grains whose size grows as one gets closer to the central star. The presence of such large grains, formed only a few 10000 years after the beginning of the gravitational collapse of the molecular cloud from which the star will form, is completely unexpected.

September 10, 2019
IRAM Conference, Multi-line Diagnostics of the Interstellar Medium - 30 March - 01 April 2020
The conference aims to bring together scientists from a wide interdisciplinary community to address recent advances, current challenges and future directions in the field. The conference will feature three days of contributed and invited talks as well as posters on the topic of multi-line observations, analysis and modeling research.

September 5, 2019
IRAM scientists share in 2020 Breakthrough Prize in Fundamental Physics
The EHT telescope collaboration has won the 2020 Breakthrough Prize in Fundamental Physics. Hundreds of researchers on the Event Horizon Telescope (EHT) team, including an important number of IRAM scientists will share the Breakthrough prize in fundamental physics for their image of the black hole at the heart of Messier 87, a galaxy 55 million light years from Earth. Congratulations to the entire team, across 60 institutions and 20 countries!

May 20, 2019
Filaments around the Horsehead Nebula are still too young to form stars
An extensive observational survey of the Orion B molecular cloud shows why so few stars are forming in its dense gaseous filaments, despite the fact that the cloud shares similarities with other star forming regions.

10 avril, 2019
La toute première image d'un trou noir
La toute première image d’un trou noir a été obtenue avec l’Event Horizon Telescope (EHT), un réseau de huit radiotélescopes sur 4 continents différents, conçu à cet effet et qui inclut le télescope de 30-mètres de l'IRAM. Cette image dévoile l’ombre du trou noir supermassif situé au cœur de la galaxie M87.

April 10, 2019
First-ever picture of a black hole
The first ever image of a black hole has been obtained with the Event Horizon Telescope (EHT), a dedicated array of eight radio-antennas over four continents, which includes the IRAM 30-meter telescope. This image reveals the shadow of the supermassive black hole at the center of the M87 galaxy.

10. April 2019
Das erste Bild eines schwarzen Lochs
Das allererste Bild eines Schwarzen Lochs ist mit dem Event Horizon Telescope (EHT) aufgenommen worden. EHT ist ein zu diesem Zweck gegründeter Verbund aus 8 Radioteleskopen auf 4 verschiedenen Kontinenten, zu dem auch das IRAM 30-Meter-Teleskop gehört. Dieses Bild zeigt den Schatten des supermassiven Schwarzen Lochs im Zentrum der Galaxie M87.

March 21, 2019
3D rendering of the environment of a red supergiant star
An international team of astronomers led by Dr. Miguel Montargès from KU Leuven has succeeded in reconstructing the 3D geometry of the environment surrounding the red supergiant star μ Cep. The material expelled by the star during its late evolutionary stage provides the building blocks for future planetary and star forming systems. The rate at which the material is expelled is key to understand the further evolution of the star to its next stage, a supernova.