#biosignatures

[uapro]

Today in Strangeness:

On the night of February 24, 1942, the 'Battle of Los Angeles' took place. Eyewitness reports of an unknown object or objects over Los Angeles, California, triggered a massive anti-aircraft artillery barrage. A photo posted in the LA Times showed nine beams of light converging on an aerial object.

[jtem]

Bio Signatures discovered on planet 124 light years away

The planet is K2-18b.

"Bio Signatures" are compounds in the atmosphere which we would expect life to produce. Pretty much all of them have natural sources, but it's also extremely unlikely that life would not produce any of them.

Things like oxygen and methane like to react, leave the atmosphere, so they need replenishing. They are far from the only Bio Signatures but they do a fine job of illustrating the point...

There's also such a thing as "Techno Signatures," which would be things we would expect an industrial society to put into the atmosphere... pollution.

[gwarden123]

Beware of Biosignatures - Sixty Symbols

[jcmarchi]

Earth sciences isn’t just for Earth - Technology Org

New Post has been published on https://thedigitalinsider.com/earth-sciences-isnt-just-for-earth-technology-org/

Earth sciences isn’t just for Earth - Technology Org

W. Bruce Banerdt dreamed of becoming an astronaut. Space fascinated him as a young boy, and the thought of rockets and satellites surging through the universe sparked curiosity and excitement.

Saturn’s moon Titan could harbor life, and USC Dornsife’s Maya Yanez is helping NASA’s JPL look for it. Image credit: NASA

But Banerdt’s academic career pushed in other directions. He earned an undergraduate degree in physics in 1975 followed by a PhD in geological sciences in 1983, both from the USC Dornsife College of Letters, Arts and Sciences, and he seemed tethered to studying the history, nature, materials and processes of Earth, not outer space. That is until a graduate school colleague mentioned a summer internship studying the moon at NASA’s Jet Propulsion Laboratory (JPL) in Pasadena, California.

“To use the skills and knowledge I had acquired in physics and geology but in connection to space, well, it seemed too good to be true,” Banerdt says.

At JPL, Banerdt discovered Earth scientists played a significant role in understanding planets beyond our own, a mission Banerdt himself embraced with an inquisitive and enterprising spirit as an intern and, later, as a research scientist. Over a 45-year career at JPL, Banerdt worked extensively on projects investigating Mars while also contributing to efforts exploring Venus and Jupiter’s satellites.

As it turns out, space exploration isn’t merely the domain of pioneering astronauts like Neil Armstrong ’70 or James Lovell ’61, or the bailiwick of those at NASA or SpaceX. Banerdt, in fact, is among a number of USC Dornsife-connected Earth scientists — faculty, students and alumni among them — expanding human understanding of the solar system and laboring to unpack its many mysteries.

Trojans exploring the universe

Like Banerdt, Maya Yanez developed an early fascination with outer space. Holding an undergraduate degree in astronomy, the Los Angeles native is now a fifth-year PhD candidate in USC Dornsife’s Department of Earth Sciences and a former JPL intern.

Yanez’s doctoral studies focus on Titan, Saturn’s largest moon and, by some metrics at least, the solar system’s most Earth-like body. Titan is also one of only six places in the entire universe on which humans have landed a robot. In studying Titan’s current conditions, Yanez inspects similarities between where Titan is today and where the Earth might have been eons ago.

“We don’t know what we’re going to find, but everything — the data and the observations we make — informs our next steps, future projects, instrumentation and studies as well as the goals we’re setting for our next mission,” says Yanez, who works in the lab of Jan Amend, professor of Earth sciences and biological sciences.

The overarching goal, Yanez continues, is to better understand the habitability of Titan, the solar system’s only other world with stable liquids on its surface.

“In Earth, we have one example of life we have poked, prodded and studied, and we can use that to explore how life evolved elsewhere,” she says.

Many other USC-affiliated Earth scientists are similarly researching outer space.

Two USC Dornsife alumni, Laurie Barge ’09 and Scott Perl ’19, for instance, lead JPL’s Origins and Habitability Lab. Barge, Perl and their team of astrobiologists continue exploring the origin of life on Earth as well as if, and how, life could have started on other worlds. The lab also investigates how Earthly life persists amid extreme environments and the geochemical processes that make a planet habitable.

Professor of Earth Sciences Frank Corsetti, meanwhile, is a geologist who studies biosignatures, or signs of life. Corsetti’s research, heavily fueled by funding from NASA, aims to understand the evolution of life on Earth as well as the necessary parameters to create and sustain life. His work informs the search for clues and patterns of potential biosignatures on Mars.

And Banerdt capped his JPL career by directing the center’s Mars InSight Mission, which included designing, building and landing a seismometer on Mars. The instrument measured quakes and vibrations on Mars’s surface, offering rich insights into the basic building blocks of Earth’s closest planetary neighbor to help scientists develop theories and craft future experiments.

The Mars InSight lander explored the red planet, partially guided by USC Dornsife Earth sciences alum Bruce Banerdt. Image credit: NASA/JPL-Caltech

“It’s almost like doing an MRI of Mars,” says Banerdt, who likened InSight to scientists’ early 20th-century examinations of the Earth’s interior. “The composition and structure of a planet’s interior affects the surface environment of that planet, which is what makes life possible or impossible there.”

Earth scientists looking beyond the planet

While Earth scientists often focus on pressing global challenges like sustainability, water resources, climate change and natural resources, Corsetti and others say taking Earth sciences to outer space isn’t as wild or disconnected as it might initially seem. Studying the Earth — its origins, its environment and its materials — extends human knowledge of the solar system in powerful ways.

“When you step back 10 million miles, you realize Earth is just a planet, like many other planets, orbiting the sun,” says Banerdt, who retired from JPL last summer. “The same tools we use to study Earth can be used to study other planets and, similarly, we can use the study of other planets to inform our understanding of Earth.”

Such efforts position Earth’s inhabitants to address one of humanity’s most burning questions: Are we alone? Society can only begin to answer that question by first understanding how life evolved on Earth. Thereafter, Earth scientists can leverage their toolkits, like processes for chemical analysis, and instruments such as robotic rovers, particle detectors and spectrographs to develop greater clarity.

“Maybe we won’t find the evidence, but at least we can constrain what is possible, which is scientific progress,” Corsetti says.

It’s an undeniably energizing pursuit for Earth scientists like Yanez, who recalls looking up into the nighttime sky as a child and wondering about life beyond the planet.

“We have no idea what we don’t know,” she says. “To begin to use what we know to understand what we don’t know is super exciting to me, and I’m constantly being surprised because there are so many firsts left in space to discover.”

Source: USC

You can offer your link to a page which is relevant to the topic of this post.

[jingszo]

Quoting respected members of the scientific community that included UK astrophysicists Maggie Aderin-Pocock and Becky Smethurst, as well as astronaut Tim Peake, all of whom seemed to strongly allude to a discovery currently still on the path toward peer review

“I think we are going to get a paper that claims to have strong evidence for a biosignature in an exoplanet’s atmosphere very, very soon,” Smethurst was quoted saying. “Let’s just say it’s on my bingo card for 2024.”

Peake had been even less ambiguous while speaking during a CNBC interview in the first days of the new year, where he said the prospects that alien life might have been discovered were looking increasingly good.

“Potentially, the James Webb telescope may have already found [it],” though also emphasizing that nothing conclusive had been released yet since scientists involved in the prospective discovery “don’t want to release or confirm those results until they can be entirely sure,” though adding cryptically that “we found a planet that seems to be giving off strong signals of biological life.”

In other words, if these observations are what they appear to be, then it seems like there’s a good chance that we may already be on course for a tremendous discovery this year; one that could potentially offer the most convincing evidence to date that life may exist on worlds beyond our own.

[wayti-blog]

"NASA has announced the first detection of possible biosignatures in a rock on the surface of Mars. The rock contains the first martian organic matter to be detected by the Perseverance rover, as well as curious discolored spots that could indicate the past activity of microorganisms."

"Since landing in Jezero crater a few years ago, Perseverance has traversed a series of rocks formed nearly four billion years before present. Mars back then was far more habitable than the cold, dry, toxic red planet of today.

There were thousands of rivers and lakes, a thick atmosphere, and comfortable temperatures and chemical conditions for life. Many of the rocks in Jezero are sedimentary: mud, silt and sand dumped by a river flowing into a lake.

The new discovery concerns one of these rocks. Informally named "Cheyava Falls" (a waterfall in Arizona), it is a small reddish block of what looks like a mudstone, enriched with organic molecules. The rock is also laced with parallel white veins. Between the veins are millimeter-scale whitish spots with dark rims. For an astrobiologist, all these features are intriguing."

continue reading

[sodabread]

hey, don’t cry, we are looking for the breath of life on exoplanets, ok?

[coursechosen]

tag dump

[the-happy-man]

As an outlet for heretical thoughts like this, Johnson started writing in a style too lyrical and philosophical for scientific journals. Her typed musings would later turn into the 2020 popular science book The Sirens of Mars. Inside its pages, she probed the idea that other planets are truly other, and so their inhabitants might be very different, at a fundamental and chemical level, from anything on this world. “Even places that seem familiar—like Mars, a place that we think we know intimately—can completely throw us for a loop,” she says. “What if that’s the case for life?”

But because scientists can’t reliably say that ET life should look, chemically, like Earth life, seeking those signatures could mean we miss beings that might be staring us in the face. “How do we move beyond that?”

A new NASA-funded initiative called the Laboratory for Agnostic Biosignatures (LAB). LAB’s research doesn’t count on ET having specific biochemistry at all, so it doesn’t look for specific biosignatures.

One good attempt at a definition [of life] came in 2011 from geneticist Edward Trifonov, who collated more than 100 interpretations of the word “life” and distilled them into one overarching idea: it’s “self-reproduction with variations.”

[meowcats734]

This article is about the rogue planet. For the mythological figure, see Icarus (mythology). For other uses, see Icarus (disambiguation).

Icarus was an icy rogue planet discovered in 2024. It is thought to have been ejected from its unknown home star 2.6 billion years ago. From early 2071 to late 2075, Icarus was present in the solar system, and was often visible to the naked eye. Of the lifeforms endemic to Icarus, only four hundred and seven species—an estimated .000005%—were documented by scientists. Of Icarus’ sapient lifeforms, only one living Singer (Icarus Sapiens) has been successfully returned to Earth.

Initially, interest in Icarus was predominantly limited to the scientific community once it was announced in 2025 that Icarus would not directly threaten Earth as it passed through the solar system. However, after the 2031 CLARITY mission, when liquid water and potential biosignatures were first detected beneath Icarus’ cryosphere, funding towards the exploration of Icarus rose significantly.

First Contact

Before the 2052 Daedalus landing site was established, popular consensus was that the first alien lifeforms humanity met would be technologically superior. However, the first Singer settlement discovered by the Daedalus crewed submersible was a tribal society formed within the decaying corpse of a Large-bodied Tenor (Mellifluus Civitas). The settlement, best translated as “Distortion of Sound in Warm, Rising Water”, was chosen due to its proximity to the Daedalus drill site; gas bubbles in the body caused by decomposition allowed Distortion to float approximately two kilometers above the surface of the ocean floor.

Although initial protocol for the Daedalus crew was to avoid contact, the crew did not anticipate the precision and sensitivity of Singer echolocation, and were swiftly detected. Despite initial concerns of conflict, with the assistance of the Daedalus AI’s linguistic analysis, tentative contact was established. By 2053, the Daedalus crew had established a basic understanding of Singer biology and the culture of Distortion.

The largest barrier to communication was the nature of Singer language. The primary Singer sense was their echolocation; as they evolved sapience, Singers learned to communicate by mimicking the sounds they heard when echolocating certain objects. Several Singer “words” well-known to popular culture include: the sound of a pod of Singers migrating (lit. “family”); the faint echoes produced by calling into empty water (lit. “loneliness”); and the high-pitched hum of the Daedalus propellers (lit. “impotent gods”).

The Massacre of Worms

Of utmost importance was successfully communicating to the Singers that Icarus was on a collision course with the Sun, and would be entirely destroyed by 2076. Even in 2053, the ice sheet which covered Icarus was already beginning to sublimate under the increased temperature. As there existed no word for fire, sun, or stars in the Singer language, a warning that their world would soon decay (lit. the sound of flesh devoured by worms, growing louder and coming from all directions) was transmitted to the citizens of Distortion of Sound in Warm, Rising Water.

In what is now known as the Massacre of Worms, the entirety of the Singer village immediately attempted to attack the Daedalus submersible. At the time, the mechanism by which Singers communicated was still poorly understood, but interviews and brain scans of the Last Singer have confirmed that Icarus Sapiens experience a species-wide condition similar to human synesthesia. In order to convert the feedback from their echolocation into useable information about their spatial environment, Singers evolved the ability to “see” sounds as hallucinated physical objects. As such, every word spoken by a Singer produces a corresponding illusory image in the mind of every Singer who hears it. Unfortunately, the warning delivered by the Daedalus submersible manifested as an imploding sphere of rotting flesh centered on the village of Distortion, and was interpreted as an attack. The Daedalus submersible sustained little damage, but out of fear that the Distortion villagers would sour relations with other Singer societies, released hypochlorous acid clouds to calm the attackers; it was believed that high concentrations of hypochlorous acid would cause the Singers to become lethargic and contented, as if they had recently consumed a filling meal. Unfortunately, due to a poor understanding of Singer biochemical sexual dimorphism, the chemicals released resulted in the deaths of nearly half of the Distortion villagers.

Through great difficulty, it was conveyed to the surviving Distortion villagers that the Massacre of Worms was a mistake, but the remaining Singers refused further contact with the Daedalus crew. Although a second attempt to halt the spread of negative rumors in Singer society was considered, the disastrous failure of the first attempt caused no action to be taken.

Termination of the Daedalus Mission

Swiftly following the Massacre of Worms came a breakthrough in solar magnetohydrodynamics, and with it, the alarming discovery that the collision of Icarus with the sun would cause a solar storm, which would deal trillions of dollars of damage to the economy. Negative press surrounding the Daedalus crew, as well as the importance of hardening the global power grid against the solar flare, caused funding for the Daedalus expedition to be cut, and the mission slated to end in 2060.

In an effort to preserve as much of Icaran life and culture as possible, the Daedalus crew attempted to make contact with and offer salvation to as many diverse Singer settlements as they could. At the peak of their efforts, in 2059, they had made contact with nineteen different Singer settlements around the planet, and although the Daedalus crew’s claims of planetary destruction were met with widespread skepticism, sixteen of them agreed to send representative Singers back to Earth. Unfortunately, four weeks before the launch date, when the Singer representatives were brought together, hitherto-unknown cultural conflicts between the Singer settlements the Daedalus crew had contacted caused the Singers to devolve into physical combat. A still-shoddy understanding of Singer biology led to the Daedalus crew being unable to save most of the Singers injured in the brawl. In the end, only one Singer survived the destruction of Icarus.

See also:

National Icaran Zoo

Icarus in popular culture

Consumption of Icaran lifeforms by country

Death of the Last Singer

(psst, I write more stuff here!)

[ectogeo-rebubbles]

Garashir jealousy because of suspected sloanshir and/or siskarak yespls

1. Sloan breaks into Julian’s quarters to watch him sleep on the regular, which Julian is unaware of. Garak is aware of it though because he planted a sensor in Julian’s quarters after the changeling replacement incident to keep a log of who went in there to help find who took him if he ever got kidnapped again (Julian at the time appreciated the gesture and gave him permission to do so but then probably forgot about it). Garak assumes they are sleeping together, and is hurt that Julian won’t even admit to him that he has a mysterious new lover (he can tell they’re a human but the biosignature doesn’t match anyone registered in the station’s records) even when he tries to indirectly, and then directly, ask him about it. Julian is very insistent that he is not sleeping with anyone. Garak knows he is lying and keeping secrets. Maybe during IAESL, Sisko takes Garak aside and tells him to look out for Julian bc s31 is trying to sink their claws into him: Sloan came to him last night to recruit him for a mission. This is the first Garak has heard of Sloan (no one told him about Inquisition), and with that info Garak finally has a name to put to Julian’s secret lover. His heart shatters and sinks. Another spy, but one for his own people. Of course. That must have been the one thing Garak was missing, the reason their flirtation never went anywhere. He pulls himself together and tells Sisko that he’ll try his best, knowing the futility of it, knowing how entangled Julian already is with Sloan.

2. Julian’s irritability towards Garak in the s6 Defiant arc is because he thinks Garak and Sisko both being stationed on the Starbase instead of the Defiant - and all of the time that they seem to spend together lately - is bc they are fucking, instead of that Starfleet is highly suspicious of Garak (last time he was on the Defiant in particular he went rogue and tried to destroy a planet so like. Valid.) even though they need him to decode Cardassian transmissions and so Sisko has been ordered to keep Garak under close observation and on a tight leash. This scenario overlays perfectly on top of canon in my mind, and lives in my head rent-free always.

[jcmarchi]

Spying for Signs of Life Among Exoplanet Atmospheres - Technology Org

New Post has been published on https://thedigitalinsider.com/spying-for-signs-of-life-among-exoplanet-atmospheres-technology-org/

Spying for Signs of Life Among Exoplanet Atmospheres - Technology Org

New research suggests that the next generation of advanced telescopes could sharpen the hunt for potential extraterrestrial life by closely scrutinizing the atmospheres of nearby exoplanets. 

Artist’s concept showing a planet amid a field of debris from the apocalyptic aftermath of a violent merger between two stars. The planet Halla may have survived in orbit around the colliding stars. Image credit: W. M. Keck Observatory/Adam Makarenko

Published recently in The Astronomical Journal, a new paper details how a team of astronomers from Ohio State University examined upcoming telescopes’ ability to detect chemical traces of oxygen, carbon dioxide, methane and water on 10 rocky exoplanets. These elements are biosignatures also found in Earth’s atmosphere that can provide key scientific evidence of life.  

The study found that for a pair of these nearby worlds, Proxima Centauri b and GJ 887 b, these telescopes are highly adept at detecting the presence of potential biosignatures. Of the two, findings show that only for Proxima Centauri b would the machines be able to detect carbon dioxide if it were present. Though no exoplanet has been found to twin Earth’s early conditions for life precisely, this work suggests that if examined in greater detail, such unique Super Earths – planets more massive than Earth but smaller than Neptune – could make a suitable target for future research missions. 

To further the search for habitable planets, Huihao Zhang, lead author of the study and a senior in astronomy at Ohio State, and his colleagues also sought to determine the effectiveness of specialized imaging instruments like the James Webb Space Telescope (JWST) and other Extremely Large Telescopes (ELTs) such as the European Extremely Large Telescope, the Thirty-Meter-Telescope and the Giant Magellan Telescope at directly imaging exoplanets. 

“Not every planet is suitable for direct imaging, but that’s why simulations give us a rough idea of what the ELTs would have delivered and the promises they’re meant to hold when they are built,“ said Zhang. 

The direct method of imaging exoplanets involves using a coronagraph or starshade to block a host star’s light, allowing for scientists to capture a faint image of the new world in orbit. But because locating them in this way can be difficult and time-consuming, the researchers aimed to see how well the ELT telescopes might handle the challenge. To do this, they tested each telescope’s instruments’ abilities to differentiate universal background noise from the planetary noise they aimed to capture while detecting biosignatures; called the signal-to-noise ratio, the higher it is, the easier a planet’s wavelength is able to be detected and analyzed. 

Results showed that the direct imaging mode of one of the European ELT’s instruments, called the Mid-infrared ELT Imager and Spectrograph, performed better for three planets (GJ 887 b, Proxima b and Wolf 1061 c) in discerning the presence of methane, carbon dioxide and water, while its High Angular Resolution Monolithic Optical and Near-infrared Integral field spectrograph instrument could detect methane, carbon dioxide, oxygen and water, but needed a great deal more exposure time.

Additionally, since these conclusions were about instruments that will have to peer through the chemical fog of Earth’s atmosphere to progress the search for cosmic life, they were compared to JWST’s current outer space capabilities, said Zhang. 

“It’s hard to say whether space telescopes are better than ground-based telescopes, because they’re different,” he said. “They have different environments, different locations, and their observations have different influences.”

In this case, findings revealed that while GJ 887 b is one of the most suitable targets for ELT direct imaging as its location and size result in an especially high signal-to-noise ratio, for some transiting planets, such as the TRAPPIST-1 system, JWST’s techniques for studying planetary atmospheres are more suitable for detecting them than direct imaging from the ELTs on Earth. 

But because the study took on a more conservative assumption with the data, Zhang said, the true effectiveness of future astronomical tools could still surprise scientists. And subtle contrasts in performance aside, these powerful technologies serve to widen our understanding of the universe and are meant to complement each other, said Ji Wang, co-author of the study and an assistant professor in astronomy at Ohio State. It’s why studies like this one, that assess the limitations of those technologies, is necessary, he said. 

“The importance of simulation, especially for missions that cost billions of dollars, cannot be stressed enough,” said Wang. “Not only do people have to build the hardware, they also try really hard to simulate the performance and be prepared to achieve those glorious results.”

In all likelihood, as the ELTs won’t be completed until the tail end of the decade, researchers’ next steps will settle around simulating how well future ELT instruments will take to investigating the intricacies of our own planet’s rampant proofs of life. 

“We want to see to what extent we can study our atmosphere to exquisite detail and how much information we can extract from it,” said Wang. “Because if we cannot answer habitability questions with Earth’s atmosphere, then there’s no way we can start to answer these questions around other planets.”

Source: Ohio State University

You can offer your link to a page which is relevant to the topic of this post.

[playedcrowd5610]

The Nemesis Chase - Transformers x Danny Phantom

Summary: Danny books it through the Nemesis with an angry Knockout on his heels

---

Notes

Set in a series where Danny finds Starscream one day and decides to start haunting the Decepticons. That's basically all the context you need but if you want more here is the rest of the series:

Haunting the Nemesis

Part 1: Chasing Stars

Part 2: Burning Rubber

Part 3: Adventures of the Decepticons' Pet Ghost Or Tumblr Master List

---

This scene was one of the first things I wrote when I started this series, so it may seem somewhat random. You can imagine it placed pretty much anywhere in the series timeline, it doesn't matter where. But I had nowhere else to put it for my posting schedule! So enjoy a fun little crack scene <3

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Danny darted down the long, metallic hallway of the Nemesis, his sneakers barely touching the ground as the sound of angry, stomping steps echoed quickly from behind. 

"Get back here, you pest!" Knockout’s voice called out from behind him, filled with fury.

Danny glanced over his shoulder, laughing to himself as the fuming Knockout pursued him. Knockout had been boasting about himself again, and how much more sophisticated Cybertronains were than Organics. After one too many snide comments, Danny decided to throw one of the tools on the desk he was sitting on at the Con… And maybe he had thrown it with a little too much enthusiasm.

"Aw, come on, Knockout, it’s just a scratch!" Danny called back, smirking to himself as he turned a sharp corner. He could have easily just turned invisible or even just phased out through the floor, but where was the fun in that?

Just ahead, Breakdown was walking down the hallway, looking over a data pad and muttering to himself.  His optics shot up when he heard the commotion as Danny grinned and zipped by him. "Hi, Breakdown! Bye, Breakdown!"  Danny waved as he ran.

Breakdown blinked as Danny sped past, followed moments later by a livid Knockout. The red mech skidded to a halt in front of Breakdown, who raised an optic ridge at him. 

 "Why didn’t you grab him?!" Knockout threw his servo in the general direction where Danny took off.

Breakdown shrugged and tilted his helm to the side. "Why are you trying to kill Danny?" He asked.

Knockout lifted up one of the doors that were attached to his forearms, showing off a fancy new mark that trailed across it. "He scratched my paint!"

Breakdown sighed exasperatedly. "Right. That’s a perfectly good reason to chase a human down. Knockout, I can buff it out when I’m done this.”  He raised his datapad, which was small in his large servo. “There’s no need to kill him."

Knockout shot him a glare. "You’ll never understand the importance of keeping a finish pristine." He took off running again, shouting after Danny. "You’re going to pay for that, Scratch magnet!"

Danny, now several corridors away, zigzagged down another hall, laughing between breaths. He recognized the control center and ran in without a second thought.  The door opened for him instantly. Soundwave had programmed in his biosignature to open the doors for him when he walked up to them because he couldn’t reach the door panels with his tiny human limbs. Speaking of Soundwave – he spotted a familiar tall, thin figure standing at the control panel. 

Danny skidded to a stop, nearly crashing into him. "Hey, Soundwave!”  The mech turned his helm towards the human.  “Uh…Where’s Starscream?"

Soundwave, without saying a word, pointed a long, silent digit down the next hallway.

"Thanks!" Danny flashed a grin and bolted, but not before waving behind him to the mech.

Not a second later, Knockout stormed in, vents running overtime. "Where did he go?"  He demanded, leaning up against the doorframe for a moment's rest.

Soundwave’s visor remained blank, and he went back to his console as if nothing had happened.

Knockout growled, throwing his servos up in defeat. "Ugh, why is everyone so unhelpful today?!"

Meanwhile, Danny rounded the corner and nearly crashed into Starscream, the mech was distracted with a data pad and stepped back when Danny tripped in front of him. Danny righted himself dusting himself off and without missing a beat, he grinned up at the Seeker.

"Hey Screamy, how about a flight?"

Starscream narrowed his optics suspiciously, opening his intake to protest, when he suddenly noticed Knockout barreling toward them, pure irritation on his face.

Starscream let out an exasperated groan dragging his servo down his faceplate. "What have you done this time?"

"No time to explain!" Danny said quickly, hopping in place as Knockout drew closer.

Starscream sighed dramatically but grabbed Danny in one smooth motion, transforming mid-action and launching into the air, soaring through the hallways of the Nemesis. Knockout skidded to a halt just as they flew out of reach for the mech.

"I am going to get him one of these days," Knockout muttered, stomping away. Once he turned the corner he ran into Breakdown again and, without a second thought, he grabbed the larger mech by the transformation seam under his neck into his chest plates and pulled him along behind him. Breakdown made a sound of surprise but decided just to follow his partner anyway.

Soundwave closed out the security camera he had opened on the monitor that he was using to watch the whole ordeal and continued his work.  A very light hint of amusement reflected in his EM field.

[liminal-station]

YOU LOOK DAMN COOL 💯‼️

BIOSIGNATURE DETECTED. REROUTING SIGNAL…

Guzma: Huh? Oh shit, izzat the cops?! I ain’t goin’ back to- huh? I look cool? T-thanks, I… I-I mean, of course I fuckin’ do!

[elbiotipo]

Every time I think about the Viking probe experiments and the fact that they might actually have found biosignatures on Martian soil but that's it, it was labelled a false positive and the experiments were not repeated in subsequent missions I go insane. What do you mean nobody sent another probe to figure it out, what do you mean "oh hey we almost found evidence of metabolism. must have been the wind. no need to check this again". Che NASA son pelotudos ustedes o que onda.

I will make a post (or even a video) talking about it, with citations and everything, one of these days.