James Webb of NASA and the Rubin Observatory have just joined forces to map the whole universe

IN A WORD

🔭The Rubin observatory And Jwst offer additional astronomical information through Large field surveys And infrared observations. 🌌 Located in Chile, the Rubin observatory use optimal conditions for on the ground Cartography of the high -field sky. 🚀The James Webb space telescope operates Point L2offering infrared capacities and detailed monitoring observations. 🛰️ Together, they facilitate a global understanding of universefrom large -scale cartography to analysis Cosmic phenomena.

As the field of astronomy is progressing, the VERA C. Rubin observatory and the James Webb space telescope (JWST) are at the forefront of discoveries, each offering unique capacities to explore the cosmos. While the Rubin large field surveys aim to map the entire southern sky, precise infrared observations of JWST allow a detailed analysis of specific celestial objects. The combination of these two technological wonders promises a more complete understanding of the universe, by taking advantage of the advantages of the ground observations and in space. Together, they are ready to unravel the mysteries of the cosmos.

The Rubin observatory: a terrestrial giant

The Vera C. Rubin observatory, located in the Atacama desert in Chile, is designed to conduct an unprecedented study in the night sky. Its strategic location benefits from a clear sky, minimum light pollution and dry atmospheric conditions, which makes it ideal for ground observations. The Legacy Survey of Space and Time (LSST) of the observatory will photograph the visible sky of the South every nights over a period of a decade, capturing a large amount of data.

The main 8.4 -meter Rubin mirror and the 3.2 Gigapixel camera are at the heart of its operations. The 201 Camera’s (CCD) Loading Coupling devices operate in tandem to produce high resolution images. This configuration allows Rubin to cover a field of vision of 3.5 degrees, capturing an area of ​​the sky much larger than the Moon. The observatory generates approximately 20 data teraoctes each night, which are processed to detect changes and identify new celestial objects.

Thanks to its real -time treatment capacities, Rubin can emit up to 10 million night alerts concerning astronomical changes. This volume illustrates the dynamic nature of the universe and the role of the observatory in monitoring transitional events. The Rubin scientific platform provides access to cloud -based data, ensuring that researchers can analyze massive data sets without the need to download them locally.

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James Webb: a space center

The James Webb space telescope (JWST) orbit around the point of Lagrange Soleil-Terre L2, about 930,000 miles from the earth. This location offers thermal stability and a clear view of the deep space, essential to its mission. The position of JWST allows it to communicate in a coherent way with the earth while avoiding interference of the heat of the sun.

The 6.5 meter of JWST primary mirror consists of 18 beryllium segments covered with gold, allowing it to capture high resolution infrared images. The instruments of the telescope, including the close infrared camera (Nircam) and the average infrared instrument (MIRI), operate at cryogenic temperatures. This sensitivity allows JWST to study the first galaxies and stars formation regions of the universe.

The sun visor, the size of a tennis court, protects the telescope from solar radiation, while active cryo-referrals hold the instruments at low temperature. JWST generates around 57 data gigabytes daily, transmitted to the earth for analysis. The accuracy of the telescope and its ability to observe weak objects make it invaluable for detailed astrophysical studies.

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Data processing: Rubin against JWST

If the two observatories produce large amounts of data, their approaches differ. Rubin wide field surveys generate approximately 7.3 data petacts per year, which requires innovative data processing techniques to manage this “big data” challenge. Automated observatory systems are essential to manage such volumes and identify significant astronomical events.

On the other hand, JWST focuses on targeted observations, spending hours on a single target to collect detailed data. Even if it produces less data than Rubin, each observation is subject to meticulous calibration before being made available to the scientific community. JWST data is crucial for in -depth studies of specific celestial phenomena.

The complementarity of these observatories appears clearly in the processing of data. Rubin statements provide a large overview of the sky, identifying events and objects of interest. JWST then makes follow -up observations, offering detailed information on the phenomena detected by Rubin.

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The synergy of large field and infrared observations

Rubin and JWST play distinct but complementary roles in modern astronomy. Rubin -wide capacities allow it to act as a recognition system, cataloging billions of cosmic objects and depending on the changes over time. Its ability to quickly identify transitional events, such as supernovae and asteroid movements, is unprecedented.

JWST’s strength lies in its precision and infrared capacities. It can penetrate cosmic dust, revealing details on the primitive universe and stars formation regions. When Rubin identifies an important event, JWST can provide in-depth follow-up observations, thus improving our understanding of the underlying processes.

The synergy between these observatories allows a more complete exploration of the universe. Rubin’s statistical surveys help understand dark matter and black energy, while JWST’s detailed observations reveal the physics of cosmic phenomena. Together, they form a powerful partnership to advance astrophysical research.

The Vera C. Rubin observatory and the James Webb space telescope represent a new era in astronomical exploration. Their combined capacities offer unrivaled perspectives on the universe, from the cartography of large -scale cosmic structures to the examination of the complex details of celestial objects. As these observatories continue to work, what new discoveries will they highlight and how will they shape our understanding of the cosmos in the years to come?

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