There is a powerful technological tool. After many twists and turns, it was launched on December 2nd, 2011. It is in a halo around the Sun-Earth L2 point, where it will hopefully operate for 20 years.

It has only been a few months since its first images were released, but it has already answered some of the Universe's most compelling questions. The JWST peered into huge clouds of gas and dust to see young stars come to life.

The first image of the JWST was of themic cliffs. The edges of an active star-forming region are known as the Cosmic Cliffs. The hot young stars that shape the region carve out cavernous gaps and leave towers of gas that resist the radiation in the image.

Scientists have dug into the image to learn more about the region and the star-forming activity that is taking place there. The results of their work were presented in a paper in the Monthly Notices. The title is " Deep diving off the'Cosmic Cliffs': previously hidden outflows revealed by JWST". The lead author is an astronomer.

Over two dozen outflows from hot young stars that weren't previously seen were discovered by the researchers. According to a press release announcing the results, there is more than one type of fountain. The outflows can be seen several light years from their star.

It is possible to see how much star formation is going on in a part of the universe that we have not been able to see before.

This study was made possible by the power of the JWST. The main ingredient in stars ismolecular hydrogen. As young stars grow, they excrete some of the hydrogen in jets and polar outflows. The jets carve out caverns in the clouds of gas and dust in the picture.

This image shows some of the new features the James Webb Space Telescope found in the Carina Nebula's Cosmic Cliffs. Image Credit: NASA, ESA, CSA, and STScI. Image processing: J. DePasquale (STScI).
This image shows some of the new features that the James Webb Space Telescope found in the Carina Nebula’s Cosmic Cliffs. Image Credit: NASA, ESA, CSA, and STScI. Image processing: J. DePasquale (STScI).

The young stars are obscured from view by the dense clouds. The power of the JWST can be seen in the clouds. One of the telescope's main science objectives is to scrutinize young stars in the clouds. The telescope will be able to see through massive clouds of dust that are opaque to visible-light telescopes, where stars and planetary systems are being born.

All of those words are coming true.

The most exciting part of the star formation process can be seen in the jets. Nathan Smith of the University of Arizona in Tucson said that they only see them during a brief window of time.

This image from the study is a behind-the-scenes look at how astronomers use JWST's advanced observing power. (a) and (b) show very large-scale overviews of the Carina Nebula region as seen in visual-wavelength emission-line images and in mid-IR images from the Midcourse Space Experiment (MSX), respectively. They show that the region in this study is actually separate from the Carina Nebula. (c) is the expanded view of the white boxes in (a) and (b.) The white box shows the JWST/NIRCam field of view, while the magenta box indicates the field of view of the HST images obtained with the telescope's ACS+WFPC2 instruments. The two white arrows in (c) indicate two O-type stars that are the dominant sources of ionizing photons in NGC 3324. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022.
This image from the study is a behind-the-scenes look at how astronomers use JWST’s advanced observing power. (a) and (b) show very large-scale overviews of the Carina Nebula region as seen in visual-wavelength emission-line images and mid-IR images from the Midcourse Space Experiment (MSX), respectively. They show that the region in this study is actually separate from the Carina Nebula. (c) is the expanded view of the white boxes in (a) and (b.) The white box shows the JWST/NIRCam field of view, while the magenta box indicates the field of view of the HST images obtained with the telescope’s ACS+WFPC2 instruments. The two white arrows in (c) indicate two O-type stars that are the dominant sources of ionizing photons in NGC 3324. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022.

The astronomer learns more about how our own Sun formed and how our Solar System came to be as a result. Our understanding of the complex mechanisms behind their formation is getting deeper by the day.

It opens the door for looking at the populations of newborn stars in environments that have been invisible up until now. What variables are important for the formation of Sun-like stars is now known.

This image from the study shows some of the objects the researchers identified in the JWST images. MHO stands for Molecular Hydrogen Object, which are newly-identified stellar outflows from young stars. The yellow boxes mark the locations of three Herbig-Haro objects and their microjets. HH objects are patches of nebulosity associated with very young stars that range in age from only a few tens of thousands of years old up to one million years old. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022
This image from the study shows some of the objects the researchers identified in the JWST images. MHO stands for Molecular Hydrogen Object, which are newly-identified stellar outflows from young stars. The yellow boxes mark the locations of three Herbig-Haro objects and their microjets. HH objects are patches of nebulosity associated with very young stars ranging from only a few tens of thousands of years old to one million years old. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022

The outflow jets are difficult to observe because they happen inside a thick cloak of gas and only last a short time. For a long time, the jets can only flow for a short time. Astronomers looked at some of the jets and outflows from the original image.

In the image first released in July, you can see some activity, but it's only visible when you dive deeper into the data from each of the different filters. "It's like finding buried treasure."

This image is a zoomed-in region of the full-size image. It shows the star cluster NGC 3324 and the two bright young stars responsible for ionizing the region of gas surrounding them. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022

Understanding how young stars form is one of the main goals in astrophysics. Light from the first stars helped drive the reionization of the Universe. The universe was obscured by a dense fog of primordial gas. Light from young stars helped clear the haze from the Universe.

One of the main objectives of the JWST is to address the question of how the first stars formed. The JWST can see objects from the Universe's early days, but it can't see individual stars. These images are important. Astrophysicists cannot study the formation of the first stars, but they can watch young stars form and work towards a better understanding of reionization.

These images from the paper show MHO 1643, the brightest and most spectacular outflow in NGC 3324. The image on the left is a bare-bones science image, filtered and stripped of vivid colour. MHO 1643 has two prominent bow shocks and several additional knots ahead of and slightly off-axis from the bow shocks. Objects labelled SPICY were found with the Spitzer/IRAC Candidate YSO Catalog. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022
These images from the paper show MHO 1643, the brightest and most spectacular outflow in NGC 3324. The image on the left is a bare-bones science image, filtered and stripped of vivid colour. MHO 1643 has two prominent bow shocks and several additional knots ahead of and slightly off-axis from the bow shocks. Objects labelled SPICY were found with the Spitzer/IRAC Candidate YSO Catalog. Image Credit: NASA/ESA/CSA/JWST Reiter et al. 2022

Astronomers have looked at the young stars in this area before. Sixteen years ago, the Hubble looked at it. The study authors were able to compare how the jets and outflows have changed in the intervening years because the Hubble can't see as much. The speed and direction of the jets are shown in the measured data.

The early release images are the start of the study of stellar formation. Future observations will allow analysis of the mass-loss rates and velocities of the new flows. As a relatively modest region of massive star formation, NGC 3324 offers a glimpse of what star formation studies may provide.

Future observations will be more detailed One of the hottest topics in astronomy is how young stars drive planetary formation.

Young stars are marked by feedback. As they grow, they emit some of the gas from the clouds into their surroundings with their jets. The formation of planets like ours can be traced back to the gas outflows. A better understanding of the outflows leads to a better understanding of the planets.

The cluster in this study is similar to the one that formed our solar system. Astronomers aren't certain yet, but by uncovering the details in NGC 3324, they might be able to shed some light on our origins.

This is an image of NGC 3324 from the ESO's 2.2-metre telescope at the La Silla Observatory. It shows the intense radiation from several of NGC 3324's massive, blue-white stars and how they've carved out a cavity in the surrounding gas and dust. The ultraviolet radiation from these young hot stars also causes the gas cloud to glow in rich colours. Image Credit: By ESO - http://www.eso.org/public/images/eso1207a/, CC BY 4.0, https://commons.wikimedia.org/w/index.php?curid=27850385
This is an image of NGC 3324 from the ESO’s 2.2-metre telescope at the La Silla Observatory. It shows the intense radiation from several of NGC 3324’s massive, blue-white stars and how they’ve carved out a cavity in the surrounding gas and dust. The ultraviolet radiation from these young hot stars also causes the gas cloud to glow in rich colours. Image Credit: By ESO – http://www.eso.org/public/images/eso1207a/, CC BY 4.0, https://commons.wikimedia.org/w/index.php?curid=27850385

The book " The Five Ages of the Universe" states that we are in the universe's "Stelliferous Era". Matter is mostly arranged into stars, galaxies, and clusters. Most of the energy in the universe is produced by stars. The Life Era is thought to be the result of stars providing the energy for life.

We can see how stars are born with the help of the JWST. Along with answering our scientific questions, the results are fascinating. Context to humanity's existence in the universe's life era is given.

Other stars are no different than the Sun. The Sun would have produced the same outflows and polar jets as the young stars in the image. The Earth was shaped by those feedback mechanisms. We learn a lot when we see young stars elsewhere.

This artist's illustration of a young star shows swirling gas and dust falling inward, spurring polar jets, shown in blue in this illustration. Our Sun may have looked similar in its early years. How did those jets affect the planets that formed around the Sun? Image Credit: NASA/Caltech
This artist’s illustration of a young star shows swirling gas and dust falling inward, spurring polar jets, shown in blue in this illustration. Our Sun may have looked similar in its early years. How did those jets affect the planets that formed around the Sun? Image Credit: NASA/Caltech

We are fortunate to have a space telescope that can show these views. The mind is transported along with the eye. We can ponder if life or another civilization might come into being.

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