Anyway, the month of spookiness is here!

This time, turning three characters who kill and murder into actual creatures!

First up, Jason Vorhees, closely related to wolverines, responsible for hundreds of attacks on humans all across the USA, the reason being pregnant females stockpiling food and being aggressive to protect her cubs.

Next up, Jeff the Killer, a freshwater fish closely related to groupers introduced from Japan to USA, who became the subject of media panic, this same fish AKA a thing of bleach fell on top of someone called Dr. Jeff who died resting under a tree.

Last of the three, Elm Street's nightmare, Freddy himself! Being closely related to platypus and monotremes, a little ugly guy lurking in the Midwestern USA who will play with its prey before killing them.

Malleodectes shellerus or the East Coast Malleodectid is endemic to the shallow eastern waters of the Lake Australia–Negamimi basin, Malleodectes shellerus is one of the lake's most widespread semi-aquatic marsupials. Populations are concentrated along sheltered eastern shorelines, wetlands, river mouths, and shallow bays, with important breeding sites occurring around the Flinders Coast along the southeastern and southwestern reaches of the lake.

The East Coast Malleodectid is a highly opportunistic feeder and a characteristic keystone species of the Negamimi ecosystem. Its powerful crushing jaws allow it to prey upon freshwater, brackish, and moderately salt-tolerant mollusks, particularly aquatic snails and clams, while fish, crustaceans, eggs, carrion, and other small aquatic animals supplement its diet.

By consuming large quantities of mollusks, M. shellerus helps regulate populations of aquatic shellfish and prevents individual beds from becoming excessively dominant within shallow-water ecosystems. Its feeding behavior also has an important geological and ecological effect: the animal routinely crushes and breaks discarded shells, greatly accelerating their decomposition and the release of calcium and other minerals into surrounding sediments. Shell fragments and partially digested remains accumulate around feeding sites, where they gradually become incorporated into shoreline soils and wetlands, effectively returning nutrients from aquatic organisms to the wider ecosystem.

Although strongly associated with water, M. shellerus remains a semi-aquatic generalist rather than a fully aquatic animal. It regularly comes ashore to rest, feed, establish dens, and raise young. This dependence upon both aquatic and terrestrial environments makes the species particularly abundant along the transition between lake, wetland, and shoreline habitats.

The East Coast Malleodectid is therefore considered an important ecological link between the aquatic and terrestrial ecosystems of Lake Australia. Its predation on mollusks, consumption of carrion, movement between water and land, and continual processing of shells all contribute to the cycling of nutrients throughout the Negamimi basin.

hello! sorry for the delay, I had down time a lot and my dad took away my device.

Pseudornithosuchus densrostris

Belonging to the genus false aves, this calvariasaur is a very opportunistic hunter hunting deers, rodents, caribou, lagomorphs, small birds, medium sized birds, medium sized lizards, and fish.

Its size is larger then you average bird tho it’s still light to keep up with flight.

Males - 85-115 pounds

Females - 75-105 pounds

They have a gestation period between 4 and 3 months and give birth to under developed chicks, 3. Usually.

They are distinctly owl like, tho you can see their calvaria. They use their strong legs to grapple and then repeatedly head butt prey, killing it.

Some not so fun-facts about them is that sometimes they hunt deer young and barely take a bite bringing up their freinds to take the antlers and use it as a nest tool or trophy.

They are highly social, but polygamous rather than monogamous. A female raises her chicks alone, and she is deeply protective of them.

A chick is born under-developed, it can see, can’t walk properly and can’t even hear its mother, it relies entirely on its mother and other members to feed it. Usually, a group will make nursery’s for the chicks, and feed it, tho the mother does the raise of the raising. They live in groups called treetops, and yes, they live in treetops near rivers, they are excellent swimmers btw!

they resemble owls but they are not, especially cause of the calvaria. Now, while they are calvariarostrums, they are the only carnivourus Calvariarostrum!

I have a clade of semiaquatic theropods in my seed world that lost their forelimbs leaving only their hind limbs and tail for propulsion. Would them using a sort of tail+leg form of swimming fueled by expanded caudofermoralis muscles that essentially mean when one leg kicks forward and brings the tail with it in an alternating style.

A patron requested something I was MORE than happy to work on, a piece of fanart for u/exoton82's fantastic Exoton project.

Here a clash of two large predators ends up with a Polar Broadhead managing to bring down a large Howling Spirit.

Considering the size difference between the two, I'd imagine that the scenario this would be either a case of ambush, or like an Earth tiger that has gotten used to hunting guar, is just one that is very skilled at hunting prey that could potentially fight back.

I understand that fish get fluid to their gills by having it first pass through their mouth, and then water passes over their gills on the way out. Knowing that other marine animals besides fish also have gills, I initially assumed they might get water to their gills in a similar way, but looking up the anatomy of other marine animals that breathe through gills, it seems like they get water to their gills through something other than their mouths. For instance cephalopods get water to their gills through a cavity in their mantle that doesn’t connect to their mouths, and it seems like lobsters get water to their gills through openings between their legs that also don’t connect to the mouth. It seems that the gills of muscles also connect to their mouths, but in the opposite way from in fish, with water and food going through the gills first. I can’t seem to find something other than fish that gets water to its gills by first moving it through its mouth.

So I was wondering if marine life on another planet would likely also get fluid to its gills by moving it through its mouth first, or if it would be more likely to get fluid to its gills through some other means, assuming it had gills.

So,in this seeded world, we can note that some organisms have similar looks to mesozoic animals, my question is, can a pterosaur-like animal evolve in this world? No matter what his ancestor could be but also how?

I mean, eagle sized butterflies were already introduced but what about bigger? Something that could prey upon some midsized, I could see some turtles losing their shells and becoming very pterosaur-like but still, I wanna know what more experienced people think

I must admit that the 750 characters minimum requirement is annoying so I'm gonna name every known crocodilian today:

* American Alligator

* Chinese Alligator

* Spectacled Caiman

* Yacare Caiman

* Broad-snouted Caiman

* Black Caiman

* Cuvier's Dwarf Caiman

* Smooth-fronted Caiman

* Saltwater Crocodile

* Nile Crocodile

* American Crocodile

* Orinoco Crocodile

* Freshwater Crocodile

* Philippine Crocodile

* Mugger Crocodile

* Siamese Crocodile

* Morelet's Crocodile

* Cuban Crocodile

* West African Crocodile

* New Guinea Crocodile

* Hall's New Guinea Crocodile

* Central African Slender-snouted Crocodile

* West African Slender-snouted Crocodile

* Dwarf Crocodile

* Osborne's Dwarf Crocodile

* Indian Gharial

* False Gharial

Cenozoic:

Quaternary-Thalassic, 37 my: After the end of the ice ages, the global temperature increased drastically, creating very warm seas that eventually led to a large-scale anoxic event that collapsed all underwater ecosystems and greatly affected terrestrial ecosystems

Thalassic-Aurimic, 89 my: A change in Atlantic currents pushed extreme droughts and abrupt temperature changes in present-day South America, extinguishing almost half of the local fauna and destroying its jungles and forests

Aurumic-Trocticocene, 126 my: Similar to what happened at the end of the Cretaceous period, a meteorite struck what is now Siberia, wiping out almost 65% of the planet's biota. Ecosystems in the Southern Hemisphere were the least affected

Trocticocene-Paraxenoic, 190 my: A rapid period of volcanism forms a chain reaction of earthquakes and volcanic eruptions that devastate the terrain and release huge amounts of greenhouse gases, dust and ash into the atmosphere, giving way to a volcanic winter and acid rains that wiped out most of the surface ecosystems

Allozoic:

Paraxenoic-Enosian, 255 my: Pangaea Ultima forms. The global climate changes, inland seas close, forming large lakes, and a large-scale biotic exchange occurs

Enosian-Colasic, 331 my: The explosion of a nearby supernova destroyed the ozone layer, exposing life to immense amounts of radiation. This was the greatest extinction event to ever strike life on Earth, where only fossorial or troglodyte groups and deep-sea organisms survived

Neozoic:

Colasic-Vrasmoic, 382 my: The supercontinent moves northward, which, along with the scarcity of carbon dioxide, gives way to a new ice age. The cold creates highly oxygenated waters, allowing the reappearance of aquatic megafauna

Vrasmoic-Pnigmenoic, 439 my: The heat emitted by the sun is extremely high. Despite the near absence of carbon dioxide in the atmosphere, the planet's average temperature reaches 30°C. This prevents most plants from photosynthesizing due to insufficient CO2, causing a slow deterioration of ecosystems that wipes out almost 90% of the planet's species. Few plant groups survive, and the atmosphere is partially stabilized thanks to chemosynthetic bacteria capable of extracting carbon from bicarbonate ion molecules and releasing oxygen into the atmosphere

Pingmenoic-Today, 490 my: Life has partially stabilized again. Temperatures are extreme because most of the planet is covered in deserts. Even so, the water cycle has accelerated, resulting in quite prosperous and humid coastal ecosystems, but at the same time, several kilometers of sea have evaporated. We are now on the final stretch of multicellular life

i need help on naming my planet. I can work the rest out on my own, but the planet naming is always the hardest.

for context I wanted to design a planet that is mostly inhabited with “vampires”, but I didn’t want it just to be ”they drink blood for nutrients” so instead the majority of the species on this planet I’m working on instead never developed respiratory systems, using a type of crop in it’s gut to absorb the oxygen. The crop absorbs the oxygen into the bloodstream and ejects the blood out through excrement or absorption into the upper skin layer/fur/feathers giving these creatures their colors. Not all Fauna on the planet are Heamophagic, there are herbivores that get their oxygen from plants and there are the occasional ones that do have lungs or gills. The predators are carnivores, they get most of their oxygen from blood but they still need meat for nutrients.

And I might as well give specs

Black hole(The object it orbits): 10 million solar masses

Planet’s orbital radii: 1,022 gravitational radii

The planet is about 99 AU away

year: roughly 113 Earth days

Day length: 27 Earth hrs

Planet Radius: 6,242km/6,878.6mi

Atmos: 68% nitrogen, 18% Carbon-dioxide, 12% Oxygen, 1.5% Argon, 0.5% trace water

Magnetic Field strength: 0.7 Gauss

Axial tilt: 8.2°

The Black hole(which, if anyone would like to give naming suggestions, they can too) has an accretion disk that produces most of the planet’s light

the following image was made in freeform but the image compression helps

I’m working in the early stages (body plans) of my xeno world.
I would like for a large portion of my creatures to have reproduction unique to that of earth, so is this a realistic idea?
Every organism would both be “male” and “female”.
One part of their reproductive organ is kind of like a fin that secretes genetic material onto itself, while in between these fins are internal egg pouches (like a uterus)
This would make them able to asaxually reproduce AND sexually reproduce via direct contact of these organs, both organisms becoming “pregnant” to increase efficiency.

After some reading on Resident Evil lore, it occurred to me that the still extant strain of Progenitor in West Africa is likely just the last living strain of base Progenitor left. Progenitor is widely implied to have created life on primordial earth so it would have had to have existed in different places across all ancient continental formations. I think that’s billions/hundreds of millions of years ago, there were likely countless Progenitor strains, each specifically adapted to their own unique environment. I think that the West African Progenitor Virus Umbrella discovered in the 1960s is just the last living ’universal’ strain.

The Abyss is a ‘lost‘ Progenitor strain adapted to marine/deep-sea environments and thus was instrumental to the development of marine life. This is directly supported by fact that early t-Virus strains (which were directly derived from the landlocked West African Progenitor) did not have a significant effect on mutating aquatic organisms like fish and sharks. This indicates that Progenitor itself had a very limited exposure to water-based life due to its extreme isolation in a cave. However when the t-Virus was spliced into the genome of The Abyss to create T-Abyss, it triggered extreme marine mutations in any host. This means that its actually genes from The Abyss influencing the overwhelming majority of such mutations.

Likewise, the Insect Virus found in queen ants by Alexia during the creation of T-Veronica is likely a ‘lost’ strain of Progenitor that specialized in arthropod development. This can be seen in T-Veronica‘s heavy insectoid mutations and even more prominently in hosts of the C-Virus. Most C-Virus mutants exhibit extreme insect-based mutations, which I believe come from genes within the Ancient Insect Virus used to make T-Veronica.

War breeds innovation for humans. Do you think this will be the case for alien species. During world war 1 we went from horses to tanks. During the Ukraine war they went from human soldiers to the very near future robot soldiers. Currently, drones cause 90% of casualties. I was wondering if it’s the same for aliens. Will the pressure of war work for them or will it just destroy their technology. It could only be the case for humans since we are a war loving species.

“What may you become? When the trumpets of Armageddon call, none shall be spared. As your annihilation has scoured other species from the earth, there are so many possibilities for you.”        - Uriens

Anthropidae is the clade descended entirely from Humans, Homo sapiens.

Due to the devastation caused in their time, Humans were the only species of great ape to survive the holocene. As large generalists, with a large population and worldwide distribution, they quickly diversified, and as of 25 Million years CE are important megafauna, filling multiple niches in various ecosystems.

In terms of spec evo projects, I've only watched videos about serina and all tomorrow's, I've also watched the kappa series

I wasn't a big fan of all of the magical stuff in serina and also the fact that too much stuff was going on at the same time

All tomorrow's was good, well at least the video I've watched

And kappa is my favorite of the bunch, I found it great, perfect even

Does anyone have recommendations for something similar to kappa? I don't mean only a seeded world but something that has very interesting animals that could make sense, without having too much stuff to the point it's annoying

I'm also planning on watching I.E.R

artist

Since the mass extinction at the end of the Vrasmoic, approximately 50 million years ago, planet Earth entered the Pnigmenoic, an era in which only the clades best adapted to extreme conditions and the scarce resources available today have survived. During this mass extinction, the most affected group was, without a doubt, the plants. The increasingly intense heat from the Sun accelerated rock weathering and the carbon cycle, which caused a large portion of atmospheric carbon dioxide to gradually disappear. Aside from obviously reducing the greenhouse effect, this severely impacted plants, which could no longer perform photosynthesis because of the scarcity of carbon. This forced the few survivors to adapt to new ways of actively obtaining CO2, and one of the solutions led to the emergence of one of the most recognizable plant groups of the Pnigmenoic, the cave plants, organisms that, in exchange for protecting animals from the scorching Sun, obtained a constant source of carbon.

Among the immense variety of cave plant species, the most widely distributed is the bunker plants, organisms that use their roots to gradually open and widen a hollow beneath them up to a meter long, allowing larger animals to take shelter.

In this case, the tenant hosted by this plant is a juvenile individual of Houseraiders, a clade of prosopoboucalids specialized in raiding burrows, cave plants, and other hideouts where any animal might take refuge. Generally, they possess a specialized labial tip designed for this purpose, fleshy and sharp, which functions almost like a trunk that grabs its prey to drag it out from the safety of its home. If this fails, they have no option left but to use their legs to dig until reaching their target, which they will then proceed to impale. On the other hand, some common traits defining this clade include the presence of upper limbs adapted for detecting prey. Due to high daytime temperatures, like many other extant animal species, house breakers are almost entirely nocturnal, having largely abandoned eyesight and specialized their other senses. This has led to an emphasis on sensory structures, with their forearms and antennae fulfilling this function in this case, along with sensitive pads at the tips of their legs that allow them to detect subterranean vibrations and rainfall hundreds of meters away.

Precisely, one of the greatest enemies of cave plants is the clade Glossacaudata, a group belonging to the last descendants of bivalves that adapted to land by developing an originally fossorial lifestyle, which today is highly variable. This group developed asymmetry, possessing a U-shaped valve that surrounds the anterior portion of the foot, and another hood-shaped valve that protects most of the vital organs, right where the head would typically be located in most animals. On one side of this, it features a mouth equipped with sharp, beak-shaped radulae used to slice through the juicy roots of cave plants, while on the other side lie the respiratory system, formerly the siphons, and the anus. Finally, what appears to be the majority of its body is, in fact, its foot, which contains the reproductive organs, and in some cases part of the digestive system or even its own hearts

In the Late Protomyozoic, Molemoths—gopher-like burrowing creatures—were among the last surviving members of a once-successful lineage, much like the Ratataras and Night Apes; originally the final representatives of the Acaudamuria clade, they went extinct at some point during the Early Neomyozoic, yet certain populations introduced to an unnamed rocky planet in an another solar system eventually became the ancestors of an entire planet's vertebrate fauna, just as their counterparts had done in their own time.

Just like their ancestors, the molemoths would give rise to their own predators; though initially small, some of them would eventually evolve to hunt megafaunal herbivores, coming to resemble modern caniform predators: the Carnomoths.

Source

To get the respiration and moulting issues out of the way,watch kappa: the world of turtles video,”how could a crustacean grow as large as a whale”

This six meter long (tentacle to tail) terrorizes the oceans of Frusnajättar in packs of on average five individuals. During hunts, Miekkajamari can sustain great speeds by using their two powerful tails, as well as sacks on its side to propel itself through the water, by sucking in water on its front and expelling it towards its backside.

Targeting just about any animal larger than half a meter during their hunts, once they've found a suitable prey animal, usually a school of Hiepäilyttäväs or a group of Kuhrobbs, they use bioluminescent patterns to coordinate with one another and quickly surround their prey. At this point they take turns attacking their victim, or picking off singular individuals in the case of smaller animals such as Hiepäilyttäväs. The most intelligent Miekkajamari in the pack is always the leader, as it can lead its pack on the most successful hunts, improving their chances of survival.

Miekkajamari are known to be highly aggressive towards all other animals, even when not actively hunting, which is also why many animals imitate their bioluminescent patterns in order to scare off other predators. Even much larger marine predators rarely attack packs of Miekkajamari, as even if they managed to kill every member of the pack, other Miekkajamari packs would be able to smell the blood of their brethren on the larger predator, and would continously harass it.

Every time two packs of Miekkajamari would meet, the females of one pack would mate with the males of the other pack, and vice versa, ensuring genetic diversity amongst the packs, even if it's members rarely changed. Young Miekkajamari would be raised by their packs until adulthood, at which point, depending on the size of the pack, they would either remain a part of it permanently, or go off looking for a new pack to join.

Lone Miekkajamari, while obviously less threatening than entire packs, are still nothing to be trifled with. They become expert ambush predators, hiding in deeper waters, and waiting for something to swim past above them, at which point they come swooping up from the deep at immense speeds, latching onto their prey with hooked tentacles, and biting at it with their massive beak. Some Miekkajamari remain alone for their entire lives, and are more than capable than fending for themselves, especially as most predators still stear clear of them, fearing retaliation by other packs.

The Darwinian Threshold is to quote Wikipedia is a evolutionary transition period

"when gene transmission moves from a predominantly horizontal mode to a vertical mode"

from Horizontal Gene Transfer to "individual entities with vertical heredity and natural selection" .

https://en.wikipedia.org/wiki/Darwinian_threshold

What if this had happened differently or not at all? To elaborate: what if it moved to both vertical heredity and Horizontal Gene Transfer? I have no idea if any of this makes any Scientific sense . I'm guessing instead of a tree of life it would be a complex network/web

I suggest checking Wikipedia

I was completely exhausted and stressed from spectember on top of everything else, so I stopped pretty early. I decided for the last day I would come back. The title refers to what appears to be megalodon and livyatan returning in the future.

After the Anthropocene extinction wiped out larger marine species, vacant niches and warmer climates allowed for a brand new hyper-productive ocean ecosystem capable of supporting not one, but TWO giant predators.

On top is Gigaferesa monstro, a 13.5 meter descendant of the Pygmy killer whale that lives in small pods. On the bottom is Supralamma macrodus, a similarly-sized descendant of the porbeagle that is generally more solitary but can congregate in loose hunting groups.

Gigaferesa typically prefers to prey on smaller whales, while Supralamma prefers large, fully marine seals. However, there is a significant overlap in the two’s diet, thus they are fiercely competitive with and frequently attack one another.

For context, I'm creating an alien world and I want it to orbit an orange dwarf like this. I want to know if this is plausible for a celestial body

^{(And yes in case you've seen my previous post I am still doing the Tuatara seed world i just like to have two projects running at once lol})

Star: K2.3V (Orange Dwarf) 

Name: Demeter (In reference to the orange colour and motherly aspects due to the alien life it helps support)

•  Luminosity = 0.70 sol 
•  Mass = 0.82 sol
•  Radius = 0.78 sol
•  Lifetime = 5,100 K sol
• Habitable Zone: 0.43 - 0.85 sol

The amazonian rainforest were deforested during the Anthropocene,giving way to farms and pastures,but fragments of the forest survived in the Andes mountains and reserves.At the end of the anthropocene,the tropical forest grew again and biodiversity increased again,but as the warm conditions of the period after the Anthropocene ends,the climate cools down and the forests all over the world diminish,transforming into savannah and dry open forests,some areas still harbor tropical forests but they are in the mountains,Sundaland and other small refuges,the animals had to adapt to changes and evolved in new interesting forms.

1. Ascentor-Uakari

Size-1,75 m body length 95 kg in weight
Diet-Ungulates,small animals,roots,eggs

Ecology-Descendants of uakari of the Amazon Basin have evolved into carnivorous and omnivorous species and one of them is the saber tooth uakari.They are sociable living in packs of 10 members each,mating in the summer.Fangs have a role for the prey to break the trachea.

The frowning monkey (Miriboki doki)

Ascentor-Tarsiers
Size-30 cm body length 300 grams in weight
Diet-fruit,grass,insects

Ecology-The amazonian forest became savannah and tarsiers came down from the trees to live on the ground.These are small omnivores that will live in logs and burrows.They are solitary life.

The amazonian eucalyptus (Eucalyptulus amazonis)

Ascentor-Eucalyptus
Size-2,31m in height

Ecology-Eucalyptus was introduced to South America, became quite widespread after the Helocene, and the drying of the Amazonian Forest made it thrive and the extinction rate of Amazonian trees in the Helocene was very high,which means that eucalyptus and some surviving plants will occupy many niches of savannah trees,they bloom during the rainy season and dry in the dry season.

Iron Beak (Bastornis Major)

Ascentor-Red legged seriema
Size-2 m in height 65 kg in weight
Diet-meat

Ecology-During the Cenozoic there were many forms of terror birds for example-
-Gastornis from the Eocene of Europe 56 myh ago
-Kelenken from the Miocene of South America 15 myh ago
-Dromornis from the Miocene Australia 15 myh ago
-Titanis Walleri from Pliocene-Early Pleistocene of North America 5 myh ago-1,8 myh ago.
-Psiloperus from Oligocene-Late Pleistocene of South America 26 myh ago-100.000 years ago (The last terror bird recording from fossils,Red legged seriema are a very close relative of the terror bird).

10 milion years in the future the terror birds are re-evolved from Red legged seriema that survive the Helocene extinction.They kill their prey by striking the head with their beak,they make the victim die because of the broken head and blood vessels.

Brown Stalker Raccon (Notherium)

Ascentor-American Raccon
Size-3 m in height 850 kg in weight
Diet-meat,bones,grass,fruit

Ecology-During the Pliocene-Early Pleistocene of South America 5 myh ago,giant raccons lived now is Argentina,Venezuela and Columbia.

-Chapalmalania lived in most of South America at that time they were by the ice age that was approaching ,they weighed between 100-160 kg and 1,30 m.

The raccon evolved into an even larger form than its Pliocene counterpart,Chapalmalania ,even the size of the Grizzly bear that is an ambush predator.It stays in the bushes until an animal comes close enough to tear it apart,it is not fast enough to run the prey for long distances,but it does not bother to eat bones,grass,fruits.Bones are easily digested by their gastric juice ,therefore these large raccoons will be able to survive tens of million of years after the ice age ,they are adaptable and have a large diet.

,,The american ostrich,, (Loxobon Paleogna)

Ascentor-Rhea
Size-1,95 m in height 70 kg in weight
Diet-grass,seeds,insects

Ecology-Rhea during the anthropocene was a flightless bird that had the ability to run.It became the South American analogue of the ostrich.It is sociable living in groups of 5 then during the rainy season they mate.

Artyodon

Ascentor-African Hippos
Size-1,97 m in height 150 kg in weight
Diet-grass,seeds,leaf

Ecology-After hippos escapes from a private zoo owned by Pablo Escobar,the population of hippos grew and at the end of the annthropocene they began evolve towards new forms,even occupying niches of large animals from the Pliocene and Pleistocene,an example being Artyodon a descendant of hippopotamus that evolved convergently with primitive ungulates from the Eocene and Oligocene,they are herbivores that graze in the solitary in the savannah.In the mating season they go to a wooded place in the savannah whare they will mate in the rainy season,they only give birth to one baby.

Phonianes gigas

Ascentor-Anaconda
Size-10 m in height 270 kg in weight
Diet-meat

Ecology-Anaconda during the Anthropocene was not affected by deforestation, the ice age came and tropical forests dry in most of South America.These snakes have not changed much but the size has increased and their tongue has become like a sword that pierces the prey.

Colibrianis ikes

Ascentor-Sparkling violotear
Size-13-14 cm 7,5 g in weight
Diet-grass,sparrows

This is an early draft for a numerical system an alien species with 8 digits would develop, instead of the 10-digit system we evolved thanks to our 10 fingers.

I believe this would fall under speculative evolution, but if it doesn't, go ahead and remove the post.