The orbiter designed to study gas giants has traveled more than 510 million miles and has observed three of Jupiter’s four largest moons up close.

When is NASA’s Juno spacecraft scheduled to pass by Io and Jupiter?

On Tuesday, May 16, NASA’s Juno spacecraft will pass by Io, Jupiter’s volcanic moon, and then shortly after, it will fly by the gas giant itself. The upcoming flyby of the Jovian moon will be the closest one so far. The spacecraft will be at an altitude of approximately 22,060 miles (35,500 kilometers). The spacecraft, which is powered by solar energy, is currently in its third year of an extended mission to study the interior of Jupiter. Additionally, it will investigate the ring system where some of the gas giant’s inner moons are located.

Which Galilean moons have Juno gathered information from during its close encounters?

Juno has conducted 50 flybys of Jupiter and gathered information during close encounters with three of the four Galilean moons, namely Europa, Ganymede, and Io. Europa and Ganymede are icy worlds, while Io is fiery.

Scott Bolton:

Scott Bolton, who is the principal investigator of Juno from the Southwest Research Institute in San Antonio, stated that Io is the most volcanic celestial body known in our solar system. By observing the volcanoes repeatedly over a period of time, we can monitor their variations such as frequency of eruption, intensity of heat and brightness, whether they are connected to a group or not, and any changes in the shape of the lava flow.

What effect does Jupiter’s gravitational pull have on Io?

Io is a celestial body that is slightly bigger than Earth’s moon. It is constantly experiencing turmoil. The largest planet in our solar system exerts a gravitational pull on everything around it, including its two largest moons, Europa and Ganymede. Io experiences continuous stretching and squeezing, which is responsible for the creation of lava seen erupting from its numerous volcanoes.

What is the purpose of the Juno spacecraft and how does JunoCam contribute to the study of Io’s volcanoes?

Juno was created with the purpose of examining Jupiter, but its numerous sensors have also gathered a significant amount of information about the planet’s moons. The spacecraft has several instruments, including JunoCam, JIRAM, SRU, and MWR. These instruments will study Io’s volcanoes and how they interact with Jupiter’s magnetosphere and auroras.

How close will Juno get to Io’s surface during the flybys?

We are now approaching an exciting phase of Juno’s mission as we move closer to Io with each orbit. Bolton stated that the 51st orbit will offer us the best opportunity to observe this heavily damaged moon up close. In July and October, we will have flybys that will bring us closer. These will lead up to twin flyby encounters with Io in December and February. During these encounters, we will fly within 1,500 kilometers of its surface. Each of these flybys is offering stunning glimpses of the volcanic eruptions on this extraordinary moon. The information ought to be impressive.

A period of fifty years spent at Jupiter:

Juno has flown close to Jupiter’s cloud tops during its flybys, reaching a distance of approximately 2,100 miles (3,400 kilometers). During these flybys, the spacecraft approaches Jupiter from over the north pole and exits over the south. Its instruments are used to study Jupiter’s interior, auroras, structure, atmosphere, and magnetosphere by probing beneath the obscuring cloud cover. This helps in learning more about the planet’s origins.

How long has the spacecraft Juno been in orbit around Jupiter?

The spacecraft Juno has completed more than 2,505 Earth days in orbit around Jupiter and has traveled over 510 million miles (820 million kilometers). On July 4, 2016, the spacecraft successfully reached Jupiter. The spacecraft had its first science flyby 53 days after its launch. It maintained that same orbital period until it flew by Ganymede on June 7, 2021. This caused its orbital period to decrease to 43 days. On September 29, 2022, the Europa flyby caused a reduction in the orbital period to 38 days. Following the upcoming Io flybys on May 16 and July 31, Juno’s orbital period will remain constant at 32 days.

Matthew Johnson:

Matthew Johnson, the acting project manager of NASA’s Jet Propulsion Laboratory in Southern California, stated that Juno is examining several celestial bodies during its extended mission, and Io is one of them. In addition to adjusting our orbit to obtain fresh views of Jupiter and flying at a low altitude over the planet’s dark side, our spacecraft will also navigate through some of Jupiter’s rings to gain insights into their composition and how they were formed.

NASA’s Webb telescope has captured the most detailed images yet of a mysterious planet!

NASA’s James Webb Space Telescope has discovered a planet far away from our solar system. This planet is different from any other planet we know because it reflects a lot of light and has a hot and humid atmosphere. This is the best view we have of a mysterious world known as a “mini-Neptune”. Previous observations couldn’t reveal much about it.

 detailed images of mysterious planet

Does planet GJ 1214 b contain water?

The planet GJ 1214 b is too hot to have liquid water oceans, but it could still have water in the form of vapor in its atmosphere.

Eliza Kempton:

Eliza Kempton, a researcher at the University of Maryland, stated that the planet is covered by a layer of haze or clouds. This information was published in a new paper in the journal Nature. We were unaware of the atmosphere until we made this observation. She said that the planet might have been a “water world” if it had a lot of water and ice when it was formed.

What have researchers observed so far about the planer?

The research team tried a new approach to break through the thick barrier. They not only observed the host star’s light that passed through the planet’s atmosphere but also followed GJ 1214 b for almost its entire orbit around the star.

JWST’s powerful MIRI:

This discovery shows how powerful Webb’s Mid-Infrared Instrument (MIRI) is. It can see light wavelengths that are not visible to the human eye. The research team used MIRI to make a “heat map” of the planet while it was orbiting the star. The heat map showed us the planet’s day and night sides and gave us information about what its atmosphere is made of. This happened right before the planet went behind the star and then came out on the other side.

Eliza Kempton:

Kempton said that being able to complete a full orbit was very important to comprehend how the planet spreads heat from the sunny side to the dark side. Day and night are very different from each other. The night side is colder than the day side.” The temperatures changed from 535 to 326 degrees Fahrenheit (279 to 165 degrees Celsius).

What is the significance of a heavy molecule atmosphere on a planet like GJ 1214 b?

Such a big shift is only possible in an atmosphere made up of heavier molecules, such as water or methane, which appear similar when observed by MIRI. According to Kempton, the atmosphere of GJ 1214 b is not made up mostly of lighter hydrogen molecules. This clue could be important in understanding the planet’s history and how it was formed, including the possibility of it having a watery beginning.

She said that this atmosphere is not from the beginning of time. “It does not reflect the composition of the host star it formed around. Instead, it either lost a lot of hydrogen, if it started with a hydrogen-rich atmosphere, or it was formed from heavier elements, to begin with – more icy, water-rich material.”

Cooler Than Expected:

And while the planet is hot by human standards, it is much cooler than expected, Kempton noted. The planet has a shiny atmosphere that surprised researchers. It reflects a lot of light from its parent star instead of absorbing it and getting hotter.

What are Mini-Neptunes or sub-Neptunes?

New observations may help us learn more about a type of planet that we don’t know much about yet. Mini-Neptunes – or sub-Neptunes as they’re called in the paper – are the most common type of planet in the galaxy, but mysterious to us because they don’t occur in our solar system. The measurements taken indicate that the planet is quite similar to a smaller version of Neptune. Beyond that, little is known.

Rob Zellem:

“For the last almost decade, the only thing we really knew about this planet was that the atmosphere was cloudy or hazy,” said Rob Zellem, an exoplanet researcher who works with co-author and fellow exoplanet researcher Tiffany Kataria at NASA’s Jet Propulsion Laboratory in Southern California. “This paper has really cool implications for additional detailed climate interpretations – to look at the detailed physics happening inside this planet’s atmosphere.”

What is a red dwarf and how long it takes to complete its orbit?

The new work suggests the planet might have formed farther from its star, a type known as a red dwarf, then spiraled gradually inward to its present, close orbit. The planet’s year – one orbit around the star – takes only 1.6 Earth days.

Kempton explained that if a planet has a lot of water, it probably formed further away from its star.

How can studying mini-Neptunes help us understand the formation of planets in general?

We need more information to learn about GJ 1214 b and how other mini-Neptune planets formed. This planet might have a lot of water in its atmosphere, but it could also have a lot of methane. To better understand how mini-Neptunes are formed, we need to observe more of them closely.

“By observing a whole population of objects like this, hopefully, we can build up a consistent story,” Kempton said.

Researchers used satellite measurements to determine CO2 emissions by country and carbon uptake at the national level. Using a NASA satellite that looks at Earth, CO2 emissions in more than 100 countries worldwide have been tracked. This project provides information on the amount of carbon dioxide released by certain countries. It also measures the carbon dioxide absorbed by natural “sinks” like forests. Accordingly, the results can demonstrate the usefulness of space-based technologies in helping countries meet their climate goals. Hence, these technologies can provide valuable information about the Earth’s climate.

Now the point is that,

What is the importance of NASA’s OCO-2?

The launch of the OCO-2 satellite was in 2014. Three camera-like spectrometers map natural and human-made carbon dioxide levels. So, these spectrometers detect carbon dioxide’s distinctive spectra. Afterward,  measuring how much sunlight a column of air absorbs from the gas, they indirectly estimate the gas.

Moreover, over 60 scientists worldwide took part in an international study that used data from NASA’s Orbiting Carbon Observatory-2 (OCO-2) mission and observations from the ground to figure out how much carbon dioxide in the air will change from 2015 to 2020. Anyhow, Researchers could estimate how much carbon dioxide was released and taken in by using this measurement-based or “top-down” method.

Even though the OCO-2 mission wasn’t meant to figure out how much each nation emitted, the study results are helpful because the first Global Stock take, which will look at how well the world is doing in meeting the goals of the 2015 Paris Agreement, is set for 2023.  All in all the study looked at information on CO2 emissions by country.

NASA Earth Science Division Director Karen St. Germain says: “NASA is focused on delivering Earth science data that addresses real- climate challenges – like helping governments around the world measure the impact of their carbon mitigation efforts,” Moreover, she said: “This is one example of how NASA is developing and enhancing efforts to measure carbon emissions in a way that meets user needs.”

Altogether, here arises the question,

How does bottom-up and top-down approach play a role in measuring carbon emissions?

In order to measure carbon emissions, the conventional approach involves calculating the amount of carbon dioxide released in various sectors, including transportation and agriculture this method, called “bottom-up,” is significant for keeping track of efforts to reduce emissions. But making these carbon inventories takes a lot of time and requires expertise and knowledge of the activities involved.

The study’s authors suggest a “top-down” approach that builds a database of emissions and removals to deal with this problem. This method could benefit countries that need more money to make inventories. The authors’ research includes information from over 50 countries that have not reported their emissions in the last ten years.

So here is the point to know that,

How do ecological changes and fossil fuels lead to the emission of carbon dioxide?

Tracking fossil fuel emissions and carbon in ecosystems, including trees, bushes, and soils, provides a unique perspective. Hence, this information is beneficial for keeping track of changes in carbon dioxide levels caused by changes in land cover. In addition, deforestation is the leading cause of carbon emissions in the Global South. Latin America, Asia, Africa, and Oceania form the Global South. In some regions, land management and reforestation have reduced atmospheric carbon. Therefore, the effects of deforestation on global carbon emissions vary by region.

The authors say that traditional “bottom-up” methods are essential for figuring out how much carbon dioxide an ecosystem puts out and how much it takes in. But these methods can be brutal when there needs to be more data or the overall effects of logging must be fully understood.

Philippe Ciais, study author and research director of France’s Laboratoire des Sciences du Climat et de l’Environnement, says: “Our top-down estimates provide an independent estimate of these emissions and removals, so although they cannot replace the detailed process understanding of traditional bottom-up methods, we can check both approaches for consistency,”

After all, we should know that,

Why is it critical to monitor the carbon balance of unmanaged ecosystems and identify any changes in carbon uptake?

The study presents a multifaceted understanding of the movement of carbon across Earth’s land, oceans, and atmosphere.

In addition to the human activities included in national inventories, unmanaged ecosystems can absorb carbon from the atmosphere. This can help mitigate the effects of global warming, particularly in tropical and boreal forests where human activity is minimal.

Australian university professor and research author Noel Cressie says: “National inventories are intended to track how management policies impact emissions and removals of CO2,” Moreover, he says: “However, the atmosphere doesn’t care whether CO2 is being emitted from deforestation in the Amazon or wildfires in the Canadian Arctic. Both processes will increase the concentration of atmospheric CO2 and drive climate change. Therefore, it is critical to monitor the carbon balance of unmanaged ecosystems and identify any changes in carbon uptake.”

The researchers concluded that their pilot experiment has room for improvement in revealing trends in national emissions.

NASA scientist and lead author Brendan Byrne works at the Jet Propulsion Laboratory in California, says about CO2 emissions by country: “Sustained, high-quality observations are critical for these top-down estimates,” Moreover, he says: “Continued observations from OCO-2 and surface sites will allow us to track how these emissions and removals change as the Paris Agreement is implemented. So, future international missions that provide an expanded mapping of CO2 concentrations across the globe will allow us to refine these top-down estimates and give more precise estimates of countries’ emissions and removals.”

So, here is

List of the countries along with the annual emission of carbon dioxide:

# Country CO2 Emissions
(tons, 2016)
1 Year
Change
Population
(2016)
Per
capita
Share
of
world
1 China 10,432,751,400 -0.28% 1,414,049,351 7.38 29.18%
2 United States 5,011,686,600 -2.01% 323,015,995 15.52 14.02%
3 India 2,533,638,100 4.71% 1,324,517,249 1.91 7.09%
4 Russia 1,661,899,300 -2.13% 145,275,383 11.44 4.65%
5 Japan 1,239,592,060 -1.21% 127,763,265 9.7 3.47%
6 Germany 775,752,190 1.28% 82,193,768 9.44 2.17%
7 Canada 675,918,610 -1.00% 36,382,944 18.58 1.89%
8 Iran 642,560,030 2.22% 79,563,989 8.08 1.80%
9 South Korea 604,043,830 0.45% 50,983,457 11.85 1.69%
10 Indonesia 530,035,650 6.41% 261,556,381 2.03 1.48%
11 Saudi Arabia 517,079,407 0.92% 32,443,447 15.94 1.45%
12 Brazil 462,994,920 -6.08% 206,163,053 2.25 1.29%
13 Mexico 441,412,750 -2.13% 123,333,376 3.58 1.23%
14 Australia 414,988,700 -0.98% 24,262,712 17.1 1.16%
15 South Africa 390,557,850 -0.49% 56,207,646 6.95 1.09%
16 Turkey 368,122,740 5.25% 79,827,871 4.61 1.03%
17 United Kingdom 367,860,350 -6.38% 66,297,944 5.55 1.03%
18 Italy 358,139,550 0.84% 60,663,060 5.9 1.00%
19 France 331,533,320 2.11% 64,667,596 5.13 0.93%
20 Poland 296,659,670 2.67% 37,989,220 7.81 0.83%
21 Taiwan 276,724,868 1.91% 23,618,200 11.72 0.77%
22 Thailand 271,040,160 1.55% 68,971,308 3.93 0.76%
23 Malaysia 266,251,542 6.54% 30,684,654 8.68 0.74%
24 Spain 251,892,320 -3.12% 46,634,140 5.4 0.70%
25 Ukraine 233,220,080 8.03% 44,713,702 5.22 0.65%
26 Kazakhstan 231,919,540 1.64% 17,830,901 13.01 0.65%
27 Egypt 219,377,350 4.72% 94,447,073 2.32 0.61%
28 United Arab Emirates 218,788,684 4.43% 9,360,980 23.37 0.61%
29 Vietnam 206,042,140 0.09% 93,640,422 2.2 0.58%
30 Argentina 200,708,270 0.16% 43,508,460 4.61 0.56%
31 Pakistan 178,013,820 9.13% 203,631,353 0.87 0.50%
32 Venezuela 175,884,256 -1.90% 29,851,255 5.89 0.49%
33 Netherlands 163,419,285 1.63% 16,981,295 9.62 0.46%
34 Iraq 162,646,160 1.22% 36,610,632 4.44 0.45%
35 Algeria 156,220,560 0.17% 40,551,392 3.85 0.44%
36 Philippines 126,922,662 12.37% 103,663,816 1.22 0.35%
37 Czech Republic (Czechia) 111,825,428 1.39% 10,618,857 10.53 0.31%
38 Uzbekistan 109,347,340 1.60% 31,441,751 3.48 0.31%
39 Kuwait 101,492,225 1.36% 3,956,875 25.65 0.28%
40 Qatar 98,990,085 1.79% 2,654,374 37.29 0.28%
41 Belgium 94,722,813 1.53% 11,354,420 8.34 0.26%
42 Oman 87,835,773 2.09% 4,479,219 19.61 0.25%
43 Nigeria 82,634,214 0.70% 185,960,241 0.44 0.23%
44 Chile 81,258,525 5.33% 18,209,068 4.46 0.23%
45 Turkmenistan 79,279,216 0.63% 5,662,368 14 0.22%
46 Romania 78,770,824 1.69% 19,796,285 3.98 0.22%
47 Colombia 77,667,594 -0.84% 48,175,052 1.61 0.22%
48 Bangladesh 74,476,230 4.50% 157,977,153 0.47 0.21%
49 Austria 73,764,112 1.54% 8,747,301 8.43 0.21%
50 Greece 67,840,662 -3.47% 10,615,185 6.39 0.19%
51 Israel 65,201,588 -0.38% 8,108,985 8.04 0.18%
52 Belarus 62,655,669 4.90% 9,445,643 6.63 0.18%
53 North Korea 58,708,734 19.49% 25,307,665 2.32 0.16%
54 Morocco 57,694,464 0.54% 35,126,283 1.64 0.16%
55 Peru 57,692,879 8.16% 30,926,032 1.87 0.16%
56 Libya 52,696,075 1.52% 6,492,162 8.12 0.15%
57 Finland 51,183,960 3.62% 5,497,713 9.31 0.14%
58 Hungary 51,018,899 2.16% 9,752,975 5.23 0.14%
59 Bulgaria 50,872,910 -6.00% 7,151,953 7.11 0.14%
60 Portugal 50,142,844 -2.36% 10,325,538 4.86 0.14%
61 Singapore 48,381,759 2.56% 5,653,634 8.56 0.14%
62 Hong Kong 47,066,386 1.23% 7,243,542 6.5 0.13%
63 Sweden 44,694,415 4.33% 9,836,007 4.54 0.13%
64 Norway 43,456,012 0.85% 5,250,949 8.28 0.12%
65 Serbia 41,168,059 2.27% 8,853,963 4.65 0.12%
66 Ecuador 40,065,690 -4.85% 16,491,116 2.43 0.11%
67 Switzerland 39,666,930 -2.30% 8,379,917 4.73 0.11%
68 Ireland 39,086,565 5.09% 4,695,779 8.32 0.11%
69 Syria 38,054,696 1.78% 17,465,575 2.18 0.11%
70 Denmark 38,007,645 5.23% 5,711,349 6.65 0.11%
71 Slovakia 36,817,242 1.74% 5,442,003 6.77 0.10%
72 Trinidad and Tobago 34,974,263 -5.92% 1,377,560 25.39 0.10%
73 Azerbaijan 33,614,235 -0.41% 9,736,043 3.45 0.09%
74 New Zealand 33,276,202 -0.14% 4,659,265 7.14 0.09%
75 Angola 30,566,933 3.13% 28,842,489 1.06 0.09%
76 Cuba 30,389,116 1.65% 11,335,104 2.68 0.08%
77 Tunisia 29,395,965 0.82% 11,303,945 2.6 0.08%
78 Bosnia and Herzegovina 25,674,120 0.86% 3,386,266 7.58 0.07%
79 Yemen 25,647,990 1.62% 27,168,208 0.94 0.07%
80 Bahrain 24,458,384 2.50% 1,425,792 17.15 0.07%
81 Dominican Republic 23,466,740 2.88% 10,397,741 2.26 0.07%
82 Jordan 22,772,370 1.83% 9,554,286 2.38 0.06%
83 Estonia 22,402,414 1.01% 1,316,510 17.02 0.06%
84 Lebanon 21,863,288 1.95% 6,714,281 3.26 0.06%
85 Bolivia 19,463,728 2.03% 11,031,814 1.76 0.05%
86 Croatia 19,408,194 3.02% 4,208,602 4.61 0.05%
87 Mongolia 18,574,260 18.09% 3,056,364 6.08 0.05%
88 Guatemala 18,539,316 2.42% 16,583,076 1.12 0.05%
89 Sri Lanka 18,454,691 8.55% 21,021,171 0.88 0.05%
90 Myanmar 16,701,776 5.61% 53,045,201 0.31 0.05%
91 Kenya 16,334,919 3.60% 49,051,534 0.33 0.05%
92 Montenegro 16,249,039 2.27% 627,264 25.9 0.05%
93 Slovenia 14,722,601 2.35% 2,074,210 7.1 0.04%
94 Ghana 14,469,986 3.54% 28,481,945 0.51 0.04%
95 Lithuania 13,685,264 2.66% 2,889,557 4.74 0.04%
96 Sudan 13,294,106 4.18% 39,847,439 0.33 0.04%
97 Panama 11,599,764 2.37% 4,037,078 2.87 0.03%
98 Ethiopia 10,438,855 4.03% 103,603,462 0.1 0.03%
99 Luxembourg 10,144,632 3.45% 579,264 17.51 0.03%
100 Zimbabwe 10,062,628 -4.17% 14,030,331 0.72 0.03%

 

Published by: Sky Headlines

Isn’t it interesting that AI in space exploration is making incredible milestones day after day?

When humans look up to the night sky, they often get stunned by its spaciousness and curiosity. Even in today’s world, that sense of curiosity continues. But, thanks to modern technology, and artificial intelligence. They have emerged as a powerful tool that not only gives answers to our fascination but also uncovers some of the universe using innovative methods.

AI Is Being Used in Space Exploration img 1
Incredible Ways AI Is Being Used in Space Exploration

AI, the artificial intelligence play a significant role in many explorational journeys of Space. From the keen control of robots and satellites to the complex analysis of vast datasets and satellites. AI offers us a lot of new knowledge. Besides this, AI functions as a versatile key that effectively unlocks many secrets of the cosmos. That is why AI is allowing scientists to boldly explore realms that were once confined to the realm of imagination.

We will explore some of the best applications of AI in space exploration, and see how it is helping scientists in the best ways.

AI in Space Exploration is Getting Crazy Day by Day!

Artificial Intelligence (AI) plays an essential role in numerous space exploration missions. From controlling robots and satellites to analyzing complex satellites and databases. Artificial intelligence is the heart of mission exploration. AI’s flexibility allows us to unravel its mysteries and provide researchers with new fields they had never thought they could explore. AI helps scientists in a variety of ways.

Let’s take a look at:

  • Robots for Navigation Purposes

AI in space exploration specifically navigate using self-deployment robots. Rovers such as Mars Exploration Rover and Curiosity have explored Mars independently for a long time, using sensors that detect obstacles such as rocks. They use AI algorithms to analyze the data to map safe routes to prevent collisions.

Robots for Navigation Purposes
Image credit: NASA/ARC

Perseverance Rover uses AEGIS to determine the most suitable rocks to collect samples and paving the way for totally independent space-based autonomous rovers.

Satellite Operations utilizing Artificial Intelligence. It is changing satellite operations improving efficiency and increasing intelligence at the same time.

SpaceX incorporates Artificial Intelligence (AI) algorithms in their navigation satellites. These algorithms utilize sensor data like speed and location measurements to determine the risk of collision. If their AI senses there could be a threat of collision, their computer onboard immediately alters their course in order to ensure that they do not get into a collision.

  • Optimization of Satellites

AI plays a crucial part in optimizing satellite orbits. It helps satellites to choose more efficient routes that take less fuel and time for precise positioning – thereby saving resources while also increasing the effectiveness of their missions.

AI in space exploration img 3

Space Data Analysis with Artificial Intelligence allows quicker and more accurate analysis of satellite data making use of machine learning’s ability to recognize patterns to identify patterns in satellite data sets, assisting us identify the most important aspects or issues more quickly.

AI is able to more effectively recognize patterns, and offer more precise, precise and complete analyses than traditional methods have ever been able to do and perform more effectively than other method! AI could be even more economical!

  • Astrogeology (or planetology) is the study of formations in space

Artificial intelligence (AI) lets scientists make use of it to detect and classify features such as eruptions and craters on planets and moons by constructing 3-dimensional representations of their surfaces, which offer us more insight into their past and the environment they inhabit.

AI in space exploration img 4

SpaceX has embraced Artificial Intelligence (AI) to improve their rockets. AI analyses sensor and instrument data to aid in precise control. In addition, they are making use of this AI to automatically land and focusing on maintaining engines and equipment to ensure landings are successful each time.

Artificial Intelligence (AI) is an integral component in space exploration. AI technology is able to quickly process information and steer spacecraft independently through space and help probes move faster so that we get a better view into the universe beyond Earth.

What can Artificial Intelligence applications aid space exploration?

AI technology can enhance the efficiency of spacecrafts, assisting them in completing tasks on their own collecting relevant data and enhancing the odds of success in mission by assisting spacecraft move autonomously around studying the information they have collected and identifying problems quickly and enabling tasks to run more efficiently.

What role can AI robots and AI play in space exploration?

NASA makes use of AI to connect spacecraft while SpaceX uses it to land rockets in safety on Earth.

Could Artificial Intelligence find use in the field of space technology?

AI is an essential source of satellite production. Utilizing machine learning techniques to evaluate designs quickly, AI allows us to quickly identify solutions. In assessing aspects like weight, strength and functional considerations, AI gives all the necessary information for designing spacecrafts.

Are there ways to make AI and exploration coexist?

Spacecraft with AI enhancements can be incredible instruments. They are not only capable of autonomously exploring space missions with greater efficiency and cost-effectiveness as well, but they can also help scientists by providing analysis of data capabilities that enhance our understanding of the universe!

When was the first time artificial intelligence be introduced to space exploration?

Deep Space 1 first utilized Artificial Intelligence in space in 1998, through the Space satellite Deep Space 1. AI was used to study two comets which included Borrelly and Braille employing “Remote Agent”, an new method of thinking specifically to analyze the properties of these objects.

Deep Space 1
Deep Space 1

Bottom Line:

Artificial Intelligence has proven an important tool when it comes to looking into space. AI assists us in identifying things that would otherwise be difficult to recognize. For example, objects changing their course or even small aspects we could ignore. Before AI became so prevalent with regard to space research, many AI applications relied on satellite data obtained from Hubble Space Telescope satellites alone to get a better understanding of space.

Artificial Intelligence AI in space exploration has performed many roles. From serving as a teacher and guide to spacecraft travel, AI has also helped astronauts master new techniques. NASA’s Jet Propulsion Laboratory developed an AI system that can manage missions in a way that is autonomous. Machine learning also analyzes images taken by Mars spacecrafts, looking for possible sources of water or other materials on Mars.

Since 1995, scientists have found more than 4,000 Earth-like exoplanets. It would surely be your surprise that these planets are outside our solar system. NASA’s Exoplanet Exploration page says the Kepler Space Telescope found most of these.  Astronomers really wanted to find the first “alien Earth.” The Earth-like planets in the Milky Way.  New discoveries show that many small, rocky planets like ours are all over the galaxy.

How Earth-like Exoplanets could Resemble the Earth?

A planet should be small and rocky, like Earth, if it wants to be a good place for life. Besides this, it also needs to be in the right spot around its star, not too hot or too cold. Henceforth, this special spot is sometimes called the “Goldilocks” zone, where it’s just right for liquid water on the planet. As telescopes get better, we’ll also look at other things like what the planet’s air is like and how active its star is.

Earth-like Exoplanets
(Image credit: Nazarii Neshcherenskyi via Getty Images)

Even though finding a planet just like Earth is hard, we’ve found some that are pretty close to being similar to our home.

Earth-like Exoplanets: Let’s Have a Quick Glance!

To answer your quest of how many Earth like planets are there in the universe. We have curated a list of Earth-like exoplanets. So, let’s have a keen and some valuable content!

Gliese 667Cc:

Exoplanets List and Names 2023
An artist’s impression of the surface of Gliese 667Cc. (Image credit: ESO/L. Calçada)

This planet is merely 22 light-years away from us. It’s at least 4.5 times heftier than Earth, as indicated by NASA’s Jet Propulsion Laboratory. This exoplanet whirls around its host star in a mere 28 days, but here’s the twist. The star is a cooler red dwarf. Which is chillier than our sun. This chill factor led scientists to speculate that Gliese 667Cc resides within the habitable zone. Where conditions might allow liquid water to exist.

However, science says that it is one of the Earth-like Exoplanets, but a very noteworthy point arises. Gliese 667Cc was initially detected using the European Southern Observatory’s 3.6-meter telescope in Chile. And it might be positioned too close to the red dwarf. Because the exoplanet is so close to the red dwarf star, it could be in danger of getting heated up by the star’s strong bursts of light called flares.

Kepler-22b:

Kepler-22b is positioned 600 light-years from us. It holds a unique distinction. It clinched the title of being the very first planet discovered by Kepler within its parent star’s habitable zone. However, there’s a catch. It is world dwarfs Earth in size. It is measuring about 2.4 times larger. What remains unclear is the composition of this “super-Earth.” Is it rocky, liquid, or perhaps gaseous? The answer is vague for now!

Besides this, let us tell you an interesting fact too. Kepler-22b’s orbit takes about 290 days, which bears a resemblance to Earth’s 365-day cycle.  Being one the resembled Earth-like Exoplanets, it circles a G-class star, akin to our sun, but with a twist. This star is smaller and cooler compared to our familiar sun.

Habitable Exoplanets
Artist’s illustration of Kepler-69c. (Image credit: NASA Ames/JPL-Caltech/T. Pyle)

This Earth like exoplanet Kepler-22b is located a vast 2,700 light-years away. It presents another enigma. This world succeed the Earth’s size by about 70 percent. However, the makeup of Kepler-69c remains a mystery, much like its counterparts.

Taking a closer look, Kepler-69c takes a brisk 242-day journey to complete one orbit around its star. This places it in a position in its own solar system similar to where Venus resides in ours. An interesting distinction arises in the form of Kepler-69c’s host star. It’s roughly 80 percent as radiant as our sun. Which if giving us a hit of the possibility that this planet snuggles within its star’s habitable realm.

Kepler-62f:

NASA has discovered a planet called Kepler-62f. It is about 40% bigger than Earth. This planet goes around a star that’s cooler than our Sun. It takes 267 days for Kepler-62f to complete one orbit. And it’s in the part of space that’s just right for living things.

Here’s an interesting fact: Even though Kepler-62f is closer to its star than Earth is to the Sun, the star doesn’t give off as much light.

Kepler-62f is quite far away, around 1,200 light-years from us. It’s a good size for a planet, which means it might be rocky like Earth. And there’s a chance it could have oceans, which is pretty exciting!

TRAPPIST -1e:

This planet is just a little bit bigger than Earth, not more than 10% larger. Among the group of planets, one called TRAPPIST-1e stands out. Scientists think it could be a good place for life we know. It’s in the habitable zone, but it’s on the outer edge.

Earth-like Exoplanets
This illustration shows the TRAPPIST exoplanets nearest their star. (Image credit: NASA/JPL-Caltech)

Then there’s Kepler-186f. It’s different from Earth because it only gets a third of the energy from its star. This planet is about 500 light-years away from us.

Around a star called TRAPPIST-1, there’s an amazing group of planets. They’re the most Earth-sized planets we’ve found in a zone where conditions might be right for life. That is the reason science says it is one the most acceptable Earth-like exoplanets. There are seven of them altogether, and one of these special planets is called TRAPPIST-1e. It’s the most likely place where life could exist, at least as we know it.

Kepler-186f’s:

Habitable Planets
A planet the size of Kepler-186f is likely to be rocky. (Image credit: NASA Ames/JPL-Caltech/T. Pyle)

Kepler-186f’s star is a red dwarf, which makes it not exactly like Earth. This interesting planet is signaling to us from a faraway distance of around 500 light-years.

What exoplanet is most like Earth?

Kepler-452b, occasionally dubbed as Earth 2.0 or Earth’s Cousin due to its features, is a captivating super-Earth exoplanet. This world gracefully revolves along the inner boundaries of its star Kepler-452’s habitable zone. Notably, Kepler-452b stands as the sole inhabitant of this planetary system. Its other identity, Kepler Object of Interest KOI-7016.01, holds relevance in the astronomical community.

Habitable zone
An artist’s impression compares Kepler 452b with Earth. (Image credit: NASA/Ames/JPL-Caltech/T. Pyle)

Are there any Earth-like exoplanets?

  • Gliese 667Cc.
  • Kepler-22b.
  • Kepler-69c.
  • Kepler-62f.
  • Kepler-186f.
  • Kepler-442b.
  • Kepler-452b.
  • Kepler-1649c.

What is the closest Earth-like exoplanets?

Merely four light-years distant, Proxima Centauri b holds the esteemed title of being our nearest known exoplanetary neighbor. This intriguing celestial body, known as Proxima b, falls within the super Earth category. It gracefully orbits an M-type star. Weighing in at 1.27 times the mass of Earth, this exoplanet completes its orbit around its star in a mere 11.2 days. Positioned at a distance of 0.0485 astronomical units (AU) from its star, Proxima b entered our awareness with its discovery announcement in 2016.

Have we found another planet like Earth?

NASA researchers have just unveiled an exciting discovery. They’ve come across a planet known as TOI 700 e, which boasts a striking resemblance to Earth. The size and shape of TOI 700 e are nearly identical to our own planet, standing at about 95%. Adding to its intrigue, this newfound world features a solid, rocky exterior. What’s even more captivating is that TOI 700 e occupies a special place within its star’s habitable zone, suggesting the tantalizing possibility of water existing on its surface.

Does Kepler-452b have humans?

The presence of life on Kepler-452b remains uncertain, yet intriguing parallels with Earth emerge. Notably, this exoplanet shares a resemblance with our own world. Kepler-452b, for instance, takes approximately 385 Earth days to gracefully complete its orbit around its star. This duration is just slightly extended compared to the span of one Earth year.

What habitable planet is 4 light years?

Astronomers have caused quite a stir with their latest revelations about Proxima b—an exoplanet deemed “highly habitable.” This distant world is merely a short 4.2 light-year hop away from Earth. The scientific community is abuzz with excitement as they contemplate the potential significance of this discovery. It’s believed that Proxima b might be making significant impact across the cosmos, as it possesses conditions that could support vast oceans of liquid water.

What other planet can we live on?

In the most recent turn of events, a groundbreaking discovery unfolded. Merely last year, scientists revealed the existence of yet another Earth-like planet. This remarkable world orbits around Proxima Centauri, one of our nearest neighboring stars. Remarkably, this planet stands as the prime contender in our search for a suitable habitat for human life.

Is there a planet like Earth in the habitable zone?

Using information from NASA’s Transiting Exoplanet Survey Satellite, scientists have done something incredible. They’ve found a planet called TOI 700 e that’s about the same size as Earth. It’s in a good spot around its star, where it’s not too hot or too cold. This special area is where water on a planet could be liquid.

How the Earth-like Exoplanets can Paves the Way in Space Science?

Finding star systems with planets like Earth in this special area is really important. It helps scientists learn more about how our own solar system began.

In the past, many of these planets might have lost their water when they were young. But in 2018, a study suggested that some of these planets could have even more water than Earth’s oceans.

Scientists define the hopeful habitable zone as the area around a star where there could have been liquid water at some point in the past. It goes beyond the more conservative habitable zone, where scientists think liquid water might have been possible for a long time.

NASA plans to send a group of three mini rovers to the Moon. That is aiming to assess their ability to work together. And not only this, but they also possess the ability to have direct control without the involvement of any humans as controllers on Earth.

 

Will Robots Overtake the Process of Autonomous Operations?

We call this project CADRE (Cooperative Autonomous Distributed Robotic Exploration). And it also shows an experiment to bring out a new technology. Besides representing an important step towards making the robots capable of doing their operation on their own. They also predict many impressive missions in the future.

What is the Exact Date of the Arrival of Mini Rovers Towards the Moon?

The CADRE mini rovers are scheduled to arrive on the Moon in 2024. As the part of NASA’s CLPS (Commercial Lunar Payload Services) initiative. Besides it, they will be deployed onto the Reiner Gamma region of the Moon using tethers. Moreover, these mini rovers are roughly the size of a carry-on suitcase and equipped with four wheels.

Mini Rovers
A pair of plastic prototypes of the CADRE rovers demonstrate driving in formation during a test at JPL last year. Seven of these “Mercury 7” prototypes were built, each named for one of NASA’s seven Mercury Project astronauts. John (for John Glenn) and Scott (for Scott Carpenter) are shown here. Credits: NASA/JPL-Caltech

What Will be the First Step of Mini Rovers Upon Landing?

When they will land on the moon, these mini rovers will see out a suitable spot for sunlight exposure. This spot would be the place where they will extend their solar panels to recharge. Aside this, they will spend an entire moon day, that is equal to about 14 Earth days. And this engagement in various experiments is would evaluate their capabilities too. Now that is impressive!

What is the Core Purpose of Sending Mini Rovers to the Moon?

The foremost goal of this cooperative robotic mission is to see how such missions can potentially enable new scientific discoveries. Or they will be able to provide support for scientists during future moon mission. By taking measurements from multiple locations. These mini rovers will aim to showcase the advantages of teamwork too. And this will be among good robotic systems in space exploration.

Let’s Know More About The Project of Mini Rovers:

The trio of four-wheeled rovers will set their mission by one by one, and they will be seeking out sunny spots to open their solar panels and charge up. And after the completion of this task, they will conduct experiments for a full moon day. Which will be equal to approximately 14 Earth days.

And if we talk about the main aim of the CADRE projects. Then they will demonstrate the effectiveness of a network of mobile robots working together one by one, and they will do it without the need for human intervention.

How Mini Rovers are the Part of NASA’S CLPS? Let’s Find Out!

These rovers are part of NASA’s Commercial Lunar Payload Services (CLPS) initiative. And they are set to reach the Moon’s Reiner Gamma region in 2024.

The focus of doing operations by own is such as impressive feature. While mission controllers on Earth provide a general direction, these rovers  themselves will select a leader too. And allocate tasks among each other to accomplish their collective mission.

The rovers’ high level of autonomy is enabling them to make independent decisions, and these would includes:

  • Coordinating movements
  • Avoiding obstacles
  • Creating 3D images of the moon surface using stereo cameras

What Technical Challenges Would be Faced by Rovers?

Additionally, CADRE aims to assess the rovers’ adaptability in facing technical challenges. The success of this experiment will also highlight many future missions. If you are wondering then they will be specialized in navigating complex and scientifically significant terrains.

Though the primary focus of CADRE is not scientific research. The rovers will carry ground-penetrating radars too. By driving in formation and using radio signal reflections from each other. They will also generate a 3D image of the subsurface that would be around 33 feet below the lunar surface.

And it is quite impressive that this innovative approach would allow these mini rovers to collect more educative data. Which will further help out in the comparison to traditional ground-penetrating radar systems.

CADRE test rover
A CADRE test rover appears to catch the attention of the much larger engineering model of NASA’s Perseverance rover, called OPTIMISM, at JPL’s Mars Yard. CADRE will demonstrate how multirobot missions can record data impossible for a single robot to achieve – a tantalizing prospect for future missions. Credits: NASA/JPL-Caltech

What is the Clever Solution to Tackle These Potential Challenges?

The rovers will have the potential challenge of surviving the extreme thermal conditions prevalent at the Moon’s equator. The daytime temperature would be around up to 237 degrees which is Fahrenheit (114 Celsius). And that is why they must possess qualities of robustness, compactness, and lightness.

The CADRE team came up with a clever solution to tackle this challenge. Which will involve the implementation of 30-minute wake-sleep cycles. That is why to cool off and recharge their batteries, the mini rovers will power down every half-hour. And upon waking, they will exchange health status information and select a leader for the upcoming phase of the mission.

Subha Comandur is the CADRE project manager at NASA’s Jet Propulsion Laboratory in Southern California. He said:

“Demonstrating a network of mobile robots can collectively achieve a task without human intervention. This breakthrough has the potential to revolutionize future exploration approaches too. Instead of relying on humans to control each rover, the question for future missions will be: “How many rovers do we send, and what can they achieve together?”

That is why mission controllers on Earth will send a general directive to the rovers’ base station aboard the 13-foot-tall (4-meter-tall) lander. And the team of small robots will then elect a “leader,” responsible for distributing work assignments too. Each of the mini rovers will independently determine the safest and most effective way to complete its designated task.

Three Mini Rovers Will Explore the Moon
Engineer Kristopher Sherrill observes a development model rover during a test for NASA’s CADRE technology demonstration in JPL’s Mars Yard in June. The team tested a new wheel design, surface navigation software, and mobility capabilities, among other aspects of the project. Credits: NASA/JPL-Caltech

What is the Collective Team Work & Coordination in Mini Rover’s Mission?

The CADRE project goes beyond just testing autonomy and teamwork capabilities.

  • The mini rovers must also confront the challenge of surviving the harsh thermal conditions near the Moon’s equator. Which is particularly demanding for small robots.
  • In the intense sunlight, these rovers might experience midday temperatures as high as 237 degrees Fahrenheit (114 Celsius).

What is the 30-minute Wake & Sleep Cycle?

In order to prevent the rovers from overheating, the CADRE team devised a good solution. Which is the implementation of 30-minute wake-sleep cycles. Every half-hour, the mini rovers will power down. Which will allow them to cool off with the help of radiators.

Once they wake up, they will communicate their health status with each other through a mesh radio network, through  Wi-Fi network. This information exchange enables them to collectively elect a leader based on fitness for the upcoming task. Then, they embark on another round of lunar exploration.

What Could be the Potential Forecast of Mini Rovers in Scientific Inventions?

The main objective of the mini rovers is to demonstrate how multirobot missions can pave the way for new scientific discoveries. And how they will provide support to astronauts during future moon’s missions. One of the rovers is pictured alongside a much larger engineering model of NASA’s Perseverance rover. This joint effort is expect to showcase the potential benefits and applications of collaborative robotics in space exploration.

The brave Ingenuity Mars helicopter might return to the air in the next two weeks.

How was the 52nd flight of the Ingenuity Mars Helicopter?

The 52nd flight of NASA’s Ingenuity Mars Helicopter was a success. This is now written in the mission record. The breakout happened on April 26, but mission controllers at NASA’s Jet Propulsion Laboratory in Southern California lost touch with the helicopter as it landed. The Ingenuity team knew that contact would break down. It was for the reason that a hill stood between where the chopper landed and where the Perseverance rover was, making it hard for the two to talk to each other. The rover sends radio signals from the airplane to the mission managers at JPL.

How did the contact with Ingenuity Mars Helicopter recover?

The Ingenuity Mars helicopters’ team had already made plans for getting back in touch with the rover when it drove back into range before the communication broke down. On June 28, when Perseverance came over the hill and could see Ingenuity again, contact was made again.

The goal of Flight 52, which lasted 139 seconds and covered 1,191 feet (363 meters), was to move the chopper and take pictures of the surface of Mars for the science team working on the rover.

What was the viewpoint of the Ingenuity team lead on the situation?

Josh Anderson, the Ingenuity team lead at JPL, said,

“The part of Jezero Crater that the rover and helicopter are currently exploring has a lot of rough terrains, which makes it more likely that communications will drop.”

“The team’s goal is to keep Creativity ahead of Persistence, which sometimes means briefly going beyond the limits of communication. We’re glad to be able to talk to Ingenuity Mars helicopter again and hear that Flight 52 has taken off.”

Mars Helicopter
NASA’s Ingenuity Mars Helicopter is seen in shadow in an image captured by its navigation camera during the rotorcraft’s 52nd flight on April 26. This image was finally received after Perseverance and Ingenuity were out of communication for 63 days. Credits: NASA/JPL-Caltech

Sixty-three days is a long time to wait for the results of a flight. But the information shows that the first plane on another world is doing fine. If the rest of Ingenuity’s health checks are just as good, the chopper could be ready to fly again in a couple of weeks.

Flight 53 will go to a temporary airport in the west. From there, the team will take another westward flight to a new base of operations. This base lies near a rocky outcrop that the Perseverance team wants to explore.

More keen details on the Ingenuity of Mars helicopter planning

JPL built the Ingenuity Mars Helicopter and also ran the project for NASA Headquarters. The Science Mission Directorate at NASA helps with it. During the creation of Ingenuity, NASA’s Ames Research Center in California’s Silicon Valley and NASA’s Langley Research Center in Hampton, Virginia, helped with flight performance analysis and technical help. AeroVironment Inc., Qualcomm, and SolAero also helped with the concept and made essential parts for the car. Lockheed Space was involved in creating and producing the Mars Delivery System.

On Saturday,1st July at around 11:11 a.m. EDT, a new space telescope named Euclid spacecraft is ready to go to space. Let’s dive in further to know about the amazing journey of this spacecraft;

What the Euclid spacecraft actually is?

It is a European Space Agency (ESA) project, but NASA, the American space agency, also helped a lot. Its main job is to discover why the universe is getting bigger faster and faster. Scientists are curious about the strange force causing this, calling it “dark energy.”

Two of the greatest contemporary enigmas about the cosmos, dark matter and dark energy, will be clarified by the ESA project Euclid spacecraft, to which NASA will also contribute.

Nancy Grace Telescope collaborating with Euclid spacecraft

By May 2027, another NASA telescope called the Nancy Grace Roman Space Telescope will team up with Euclid. Together, they will try to solve this mystery in new ways. Jason Rhodes, a top research scientist at NASA’s Jet Propulsion Laboratory in Southern California and a key person in both the Roman and Euclid spacecraft projects, said that;

“Even though we learned about the universe’s fast expansion 25 years ago, we still don’t understand it”.

He said;

“These new telescopes would help us measure dark energy much better than before, starting a new exploration period.”

Scientists are curious to know if the universe’s speedy expansion is because of some extra energy or if it means that we need to change how we understand gravity. Astronomers will use Roman and Euclid to look into both of these theories. They think both of these projects will give us important information about the universe’s workings.

How will the Roman and Euclid will work?

Euclid and Roman are made to study the universe’s speedy expansion, but they’ll do it in different ways that complement each other. Both will make 3D maps of the universe to answer big questions about its history and structure. Together, they’ll be much more powerful than they would be alone.

Euclid spacecraft will look at a much bigger area of the sky – around 15,000 square degrees, or about a third – using infrared and optical light but will see less detail than Roman. It will look back 10 billion years to when the universe was about 3 billion years old.

Roman can look at the universe with more detail and precision but will cover a smaller area – about 2,000 square degrees, or one-twentieth of the sky. Its infrared vision will see the universe when it was 2 billion years old, showing more fainter galaxies. While Euclid spacecraft will only look at the universe’s structure, Roman will also study closer galaxies, find and study planets throughout our galaxy, look at objects at the edges of our solar system, and much more.

Some crucial aspects of the ESA's Euclid and NASA's Roman spacecraft are compared in this infographic.

The Hunt for Dark Energy

The universe has grown since it was born, a fact discovered by Belgian astronomer Georges Lemaître in 1927 and Edwin Hubble in 1929. But scientists thought that the universe’s gravity would gradually slow this growth. In the 1990s, by looking at a specific kind of supernova, scientists found out that about 6 billion years ago, dark energy started to have a bigger effect on the universe, and we don’t know how or why. The fact that the universe’s expansion is speeding up means that we don’t understand something about the universe.

What will Euclid and Roman projects will study?

Roman and Euclid will give us new data to help us understand this mystery. They’ll try to figure out what’s causing the universe’s speedy expansion in a few different ways. First, Roman and Euclid will look at how matter has accumulated over time using weak gravitational lensing. This happens because anything with mass bends space-time; the more mass, the more bending. The light that moves through these bends looks distorted. The background can look smeared or show multiple images when the bending objects are big galaxies or clusters of galaxies.

Less concentrated mass, like clumps of dark matter, can create smaller effects. Roman and Euclid spacecraft will create a 3D map of dark matter by studying these smaller distortions. This will give clues about the universe’s speedy expansion because the gravitational pull of dark matter, acting like a glue that holds galaxies and galaxy clusters together, fights against the universe’s expansion. By counting all the universe’s dark matter over time, scientists will better understand the push-and-pull causing the universe’s speedy expansion.

The two projects will also study how galaxies are grouped at different times in the universe. Scientists have seen a pattern in how galaxies gather from measurements of the nearby universe. For any galaxy today, we are about twice as likely to find another galaxy about 500 million light-years away than a little nearer or farther.

Observing the Expansion of universe

This distance has grown over time because of the universe’s expansion. By looking further into the universe via Euclid spacecraft, to earlier times, astronomers can study the preferred distance between galaxies in different periods. Seeing how it has changed will reveal the universe’s expansion history. Seeing how galaxy grouping varies over time will also allow a precise gravity test. This will help astronomers tell the difference between an unknown energy component and different theories about modified gravity as explanations for the universe’s speedy expansion.

Roman’s survey for Ia supernova

Apart from Euclid spacecraft, Roman will conduct an extra survey to discover many faraway type Ia supernovae – a special exploding star. These explosions have a similar brightness. Because of this, astronomers can determine how far away the supernovae are by measuring how bright they look.

Astronomers will use Roman to study the light of these supernovae to find out how fast they appear to be moving away from us. Scientists will trace the universe’s expansion over time by comparing how fast they’re moving away at different distances. This will help us better understand whether and how dark energy has changed throughout the universe’s history.

What is the significance of Roman and Euclid spacecraft project?

The two projects’ surveys will overlap, with Euclid likely looking at the entire area Roman will examine. Scientists can use Roman’s more detailed and precise data to correct Euclid’s and apply these corrections to Euclid’s larger area.

Mike Seiffert, a project scientist for the NASA contribution to Euclid at NASA’s Jet Propulsion Laboratory, said that Euclid spacecraft’s first look at the big area of sky it will study would inform the science, analysis, and survey approach for Roman’s more detailed examination.

Yun Wang, a senior research scientist at Caltech/IPAC in Pasadena, California, who has led galaxy grouping science groups for both Euclid and Roman, said,

“Together, Euclid and Roman will add up to much more than the sum of their parts.”

He said combining their observations will give astronomers a better idea of what’s happening in the universe.

Three science groups supported by NASA are contributing to the Euclid spacecraft project. Along with designing and making Euclid’s Near Infrared Spectrometer and Photometer (NISP) instrument sensor-chip electronics, JPL led the getting and delivery of the NISP detectors. NASA’s Goddard Space Flight Center tested those detectors. The Euclid NASA Science Center at IPAC (ENSCI) at Caltech will support U.S.-based studies using Euclid spacecraft data

News:

In a truly remarkable collaboration between LEGO and NASA’s Jet Propulsion Laboratory (JPL), an awe-inspiring STEM-inspired building set has been crafted, igniting the curiosity and passion for engineering and space exploration among children. This captivating creation, the Ingenuity helicopter aims to captivate young minds and spark their interest in the universe’s wonders. Based on the real Perseverance rover and Ingenuity helicopter currently exploring Mars’ Jezero Crater, this innovative kit has been making its way into homes worldwide, bringing the wonders of space exploration closer to young enthusiasts.

Ingenuity Helicopter Inspiring Space Explorers

The LEGO Technic building set results from extensive consultations between LEGO designers and JPL engineers, who shared valuable insights into constructing these extraordinary space machines. Developed in collaboration with the Office of Technology Transfer and Corporate Partnerships at Caltech, which oversees JPL for NASA, the kit represents another successful endeavor within the Technology Affiliates Program. This program encourages industry partnerships and allows companies to leverage JPL’s intellectual property or collaborate with renowned scientists and engineers to tackle diverse technological challenges.

Fostering STEM Education

Drawing on NASA’s long-standing alliance with LEGO, this building set offers aspiring builders the opportunity to delve into the intricate details of the Perseverance Rover. By examining its mobility system and science instruments and interacting with simulated data transmitted by the rover, users gain an immersive experience that fosters scientific curiosity and a deeper understanding of space exploration.
Notably, since landing on Mars in February 2021, the Perseverance rover has embarked on a groundbreaking mission to search for evidence of ancient microbial life. It has collected rock and soil samples that will be returned to Earth by a future mission. Meanwhile, the Ingenuity helicopter achieved a groundbreaking milestone by becoming the first powered and controlled aircraft to take flight on another planet. With over 50 successful flights, Ingenuity has provided valuable aerial insights into the Red Planet.

Ingenuity Helicopter and Young Enthusiasts

Laurie Leshin, Director of JPL, expressed her enthusiasm for inspiring young minds, stating, “Our trips to Mars started with a plan so big that many people thought it was impossible. With great success, we’ve accomplished the incredible feat of safely landing rovers and even a helicopter on the enigmatic terrain of Mars. Our missions aim to delve into the intricate details of the planet’s climate, geology, and potential for hosting life, unveiling the captivating mysteries of the Red Planet. At JPL, we try to answer amazing science questions by dreaming big and pushing the limits. I hope that these kinds of toys will give kids the same sense of adventure that we have at NASA’s JPL.”

Ingenuity Helicopter LEGO Collaboration

Scott Hulme, a Mars public engagement expert at JPL, highlighted the significance of partnerships like this, emphasizing how they enhance the enjoyment and accessibility of space exploration for the upcoming generation of explorers. He expressed his enthusiasm for sharing the remarkable endeavours of Perseverance and Ingenuity on Mars, underscoring the value of collaborations as an additional avenue for fostering interest and engagement in space exploration.

The successful partnership between LEGO and JPL promotes education and excitement about space exploration and exemplifies the growing trend of private-public collaborations in pursuing scientific advancement. By working closely with JPL’s technology transfer offices and programs, companies can forge strategic alliances, enabling the sale of intellectual property, as demonstrated by LEGO, or facilitating access to JPL’s exceptional talent pool to address various technological challenges. These joint projects offer JPL enhanced opportunities to engage with the private sector, ultimately benefiting people on Earth and fostering an enduring fascination with space exploration.

In conclusion, introducing the LEGO Technic building set inspired by NASA-JPL’s Perseverance rover and Ingenuity helicopter is a powerful tool to captivate young minds and cultivate a passion for engineering, space, and scientific exploration. By enabling children to embark on their space adventures from the comfort of their homes, this collaboration promotes the spirit of curiosity, innovation, and the boundless potential of human achievement.

News:

NASA’s MAVEN spacecraft project has taken two amazing pictures of Mars using ultraviolet light. This light can show us a lot about the planet’s air and surface.

Maven, a NASA spacecraft, enters orbit over Mars. According to NASA, the Maven spacecraft effectively completed an engine run to reach Martian orbit and start its journey to investigate the atmosphere of the Red Planet. The Martian ionosphere contains a thin film of metal ions as a consequence of entering interplanetary dust striking the upper atmosphere, and MAVEN delivered its inaugural direct observations of this layer.

MAVEN Spacecraft’s Mission

Originally an aspect of NASA’s now-cancelled Mars Scout Programme, the Mars Atmosphere and Volatile Evolution (MAVEN) expedition was chosen to investigate the planet’s environment and aurora and how they are influenced by the Sun and the solar winds.
MAVEN spacecraft discovered that the Sun is the main cause of Mars’ atmosphere depletion. The solar wind is the aggregate name for the stream of hot, extremely energetic particles that the Sun releases.

MAVEN spacecraft’s tool for taking these pictures is the Imaging Ultraviolet Spectrograph (IUVS). It took these pictures in 2022 and 2023 when Mars was at different points in its path around the Sun.

UV Images by MAVEN Spacecarft

The IUVS tool takes pictures using light that we can’t usually see. To help us see it, the pictures show different light brightness levels as red, green, and blue. Using these colors, the air’s ozone looks purple, and clouds look white or blue. The surface can look tan or green, depending on the picture.

UV Images by MAVEN Spacecarft

The first picture by MAVEN spacecraft was taken in July 2022, when Mars was close to the Sun. It was summer in the southern part of Mars. In the picture, you can see a large area called the Argyre Basin, filled with a light pink haze. You can also see the white southern polar ice cap. It’s smaller because it’s summer and warmer. More water vapor is in the air because of the heat and dust storms. This is why Mars loses more hydrogen during this time.

MAVEN spacecraft took second picture which shows the northern part of Mars in January 2023. This was when Mars was farthest from the Sun. Many white clouds are near the north pole because the seasons change quickly. In this picture, the cold winter nights have caused more ozone to form. Then, the ozone goes away in the spring because of reactions with water vapor.

orbit 18009

MAVEN Spacecraft Project

The Pentagon’s Project termed as Maven spacecraft uses equipment algorithmic learning to sift through vast amounts of intelligence, spying, and reconnaissance information, including autonomous footage, document, hard drives for computer systems, thumb drives, and more, that have been gathered by the department and intelligence organisations for use operationally by the services.

Insights of MAVEN Spacecarft on Mars

MAVEN spacecraft was sent to space in November 2013 and started orbiting Mars in September 2014. The mission aims to study Mars’ upper atmosphere and how it interacts with the Sun and solar wind. This helps scientists learn more about how Mars’ atmosphere is escaping into space. Knowing this helps us learn about Mars’ past air, climate, and water and if it could have supported life. The MAVEN team is preparing for September 2024, when the probe will have been on Mars for ten years.

The person in charge of MAVEN works at the University of California, Berkeley. NASA’s Goddard Space Flight Center in Maryland runs the project. Lockheed Martin Space made the spacecraft and managed the mission. In Southern California, NASA’s Jet Propulsion Laboratory assists with tracking the spacecraft and the Deep Space Network. The Laboratory for Atmospheric and Space Physics at the University of Colorado Boulder manages the science activities and talks to the public.