recursal/Fanatic-Fandom huggingface dataset:
Daptodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Distropheognatha

Neodistropheognatha

**Daptodontia**

## Immediate subtaxa

Flagellifera

Dryptognatha

***Daptodonts*** are a clade of neodistropheognathans consisting of the generalist flagelliferans and the mesocarnivorous dryptognaths, as well as being closer to each other than they are to the hadronychids.
Christian Leon

Usuario del server de la miguepandilla, es un chico de 17 casi 18 que suele ser alguien tranquilo y que rara vez usa su voz

## BIOGRAFIA

Nacio el 25 de noviembre del 2003, vive en la cuidad de mexico.

a el le gustan los videojuegos como: the legend of zelda megaman, sonic,kirby,etc

hace dibujos y hasta hizo un mod en the bidding of isacc (solo pudo el cuerpo y no pudo programar el cabello) ah hecho pack de texturas de minecraft actualmente logro hacer un mod de sombreros de las miguepandilla en el juego duckgame y tiene un canal de youtube que casi nunca sube nada

el ya ah hecho varias cosas en el server ya sea un evento, mods, o un tercer mail para el servidor

antes de ser la persona que conocian antes jugaba videojuegos teniendo vastos recuerdos de wind waker y otros mas dejo de jugar videojuegos hasta que volvio a jugar videojuegos gracias a sonic generations

## TRIVIA

* su primera waifu fue may de pokemon
* su actual waifu es gloria de pokemon sword and shield y siente un admiracion por cukizilla (re simp)
* tiene gusto culposo a fire emblem
* dibuja a mano o de manera digital ya sea en PC o en Celular, donde manda sus dibujos en twitter
* su primer juego que lo volvió apasionado a los videojuegos fue sonic generatios
* su estilo de dibujo tiene influencia a: calart o el estilo que toda la gente usa, un poco de estilo de wind waker, y algo de vete ala versh
* tiene instintos piromanos
* el usa actualmente a toon link como avatar aun que tambien a usado a cukizilla o penny de brawl stars como avatar
* su estado es: "come on" siendo referencia a cuando link grita en wind waker o tambien pone uno "BYE BYE y una bomba"
* aveces cuando esta aburrido hace cosas que tienen que ver con el servidor haciendo cosas como: el crear el fanfic de zawuardo y talis, la historia de que algunos usuarios fueron al chiste, hacer un lore al estilo FNaF pero con la miguepandilla
* es muy fan de jojos que aveces llega a hacer jojo referencias
* le caga que digan su nombre sin h osea Cristian Leon
* actualmente hizo un evento de san valentin el cual lo llamo cartas de la amistad y tiene planeado hacer mas eventos con la tematica de sanvalentin
* el administra la cuenta de twitter miguepandilla con contexto donde da contextos a todo lo que publique la otra cuenta miguepandillas out of context
* aun que no se note sus dias festivos favoritos es halloween y san valentin
* el mismo se ah dado como clon de olakease debido a que han hecho varias cosas en comun
Spectra

**Spectra** is a YouTuber and PTuber both, who make pony animations- and music videos. His/Her gender is questionable. Spectra wear a hoodie, and a anonymous mask, and He/She use a voice distorter in His/Her videos.

* Twitter: [Link]

* YouTube: [Link]

* Patreon: [Link]

* Email: **spectraofficial@citromail.hu**
* Discord:
DCID: **Spectra#9826**
DC Server: *Soon!*
Les piliers des Sept Divinités

## Sept Piliers

D'après les plus grands chercheurs d'arcanes et énergies magiques de tout horizons, la magie en Altera ne serait pas issue d'elle-même mais de noeuds, ou de "Pilliers" diffusant la magie à travers le cosmos et la matière. Cette magie imbiberai tout et certains éléments comme les êtres vivants ou minéraux y seraient plus ou moins sensibles.

La théorie voudrait que ces noeuds soient des créations, chacune liées à une divinité et qu'elles diffusent chacune un type de magie unique. La question étant - si cette théorie est valide - comment les dieux pouvaient-ils exister sous leur représentation magique précédemment, ou encore plus créer ces piliers sans avoir recourt à leur dite magie ? Certains diraient qu'il s'agit en vérité de la position des divinités elles-même, mais sans réel fondement, bien que cela puisse peut-être ce tenir.

Tel un serpent qui ce mord la queue, cette théorie à ses suivants et ses détracteurs. Bien qu'il semble effectivement y avoir des noeuds diffusant la magie à travers l'univers,
Isodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Stenopsidae

Neostenopsidae

Ceratodontia

Neoceratodontia

**Isodontia**

## Immediate subtaxa

Kophodontidae

Elaphrodontia

***Isodontia*** is a clade of neoceratodonts that are identified by their pedipalps and exognaths having more or less the same structure and anatomy (hence the name) which is dependent on the clade and that niche.
Oligopoda

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Procaecoformes

**Oligopoda**

## Description

**Oligopods** are one of the earliest radiations of procaecoformes, splitting off early on in their evolution. Swiftly after becoming the dominant herbivores due to their mandibles and digestion, the ancestral oligopods began adapting for speed and cursoriality, their feet becoming narrow and unguligrade. However, their more notable adaptation is their centaurism of the second pair of limbs, becoming the first osteopods to walk only on their hind pairs of limbs and the first non-insular quadrupeds on the planet, as well as having some of the most efficient locomotion among of any osteopod clade. Basal oligopods are only facultatively quadrupedal, keeping their second pair of limbs on the ground when resting, while more derived species have effectively turned them into a second pair of feeding arms.
Stasia Ombre-Linceuil

Âge :  303 ans

Race : Elfe-Vampire

Jeune elfe à la beauté juvénile, typique de son peuple, Stasia a suivi le parcours de vie de la plupart de ses semblables. Ainsi, ayant appris la maîtrise arcanique, les bonnes disciplines et l’histoire de sa nation, la jeune femme s’engage vers sa vingtaine d’années dans un poste d’intendente dans une administration publique de Quaolis, capitale des elfes. Travaillant sans relâche à la structure de l'État, même en pleine guerre.

Malheureusement, en 250 avant la fin de la guerre des Mille ans de Sang, les maux du Chaos s’abattent sur les différents continents d’Altera. Les elfes, comme les autres peuples, ont dû se confronter à la grande menace vampire. Au sein même de la capitale elfique, les victimes de ce drame se comptent nombreuses. Stasia en fait partie, mordue par un elfe sylvestre infecté et assoiffé. Ne pouvant déjouer la malédiction, l’elfe Ombre-Linceuil devient alors une vampire à son tour.

Malgré tous ses services, son propre peuple l’a menacé de mort. La nouvelle vampire a dû s'enfuir pour survivre. Considérée comme un monstre par sa famille et ses proches, une grande peine emporte son doux caractère. N’ayant fait presque aucune victime volontairement, elle est restée cachée dans des bois voisins… Fuyant une énième fois, elle fut secouru par un groupe mené par le charismatique Gregor Sang de Pourpre. Ce dernier devient son sauveur, un symbole à suivre…

Plus tard, elle arrive à se faire une place dans la société vampire. Voyant la paix signée entre son petit peuple et les autres mortels en 180 avant la fin de la Grande guerre, l’elfe-vampire peut enfin respirer. Des années suivent, aidant sa nouvelle nation comme elle le peut, elle vit plus tard une belle occasion pour elle… devenir intendante auprès de la Ligue des aventuriers, une organisation assez tolérante. Même si elle est une vampire, elle pourrait certainement se faire une place…

C’est ainsi que la jeune vampire se retrouve sur l’île de Midlane, au service de la Ligue...
Precursors

Candidate for deletionThis page has been nominated for removal from the wiki.Remember to check what links here and the page history before deletion.
The precursors are the Unnamed biological origin of all life in the Alien Biospheres series. Speculated to be much like the micro/one-celled organisms on earth, these Precursors would have shared many similarities to such lifeforms. Not much is known except for the fact that they most likely fed on life-supporting gases from underwater vents and volcanoes.
The Mysterious Island

*The Mysterious Island* is a game, but only a suggestion by **A Google user**. Here are all the animals suggested as well:

* Giant Frilled Neck Lizards
* Giant Bees
* Giant Bee-Eating Birds
* Giant Monarch Butterflies
* Giant Red Ants
* Giant Black Widow Spiders
* Giant Centipedes
* Giant Ladybugs
* Giant Grasshoppers
* Elephants
* Lions
* Lionesses
* Great White Sharks
* Dolphins
* Giant Electric Eels

This game could possibly be based on Journey 2: The Mysterious Island
Septentriformes

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Archerhamphodontidae

Coryphodontia

**Septentriformes**

## Immediate subtaxa

Phractoformes

Cryptonychidae

***Septentriformes*** are a clade of coryphodontid rhamphodonts of which the ancestor rafted over to Septentria and from there diversified into many forms among the dermatopods and other native Septentrian species.
Trilobophyllus axidenti

## Taxonomy

Chemophyta

Xenophyta

Xylophyta

Altiphyta

**Trilobophyllus axidenti**

***Trilobophyllus axidenti*** (lit. “Axident’s three-lobed leaf”) is a species of altiphyte.

## Description

Possibly growing up to thirty meters tall, *T. axidenti* is a common species of altiphyte native to the far eastern tropical rainforest. Like most xylophytes, *T. axidenti* owes a significant portion of its height and volume to its towering woody trunk. At the very top of this trunk is a meristem supporting several of the huge three-lobed leaves that the genus *Trilobophyllus* was named after. Like most other altiphytes, these leaves possess grooves to allow rainwater to flow off more easily. Further down the trunk are the many male and female gametangia that reach out high above the ground and away from the tree to ensure successful dispersal of gametes and spores. Near the bottom of the trunk grows a tangle of sprawling buttress roots that help to stabilize the massive tree and allow it to more effectively absorb nutrients from the rainforest soil. Like the other altiphytes of the rainforest, *T. axidenti* individuals play a substantial role in defining rainforest ecosystems, with their sprawling roots, branches, and canopies serving as unique habitats for countless other species, both plant and animal.
Neoscandopoda

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Archeplatydontia

Archeplatydontidae

Neoplatydontia

Neoplatydontidae

**Neoscandopoda**

## Immediate subtaxa

Pholcoscelida

Brachyscelida

***Neoscandopods*** are a clade of scandopods consisting of all the clades to evolve after the mass extinciton that are closer to each other than to the pre-extinction scandopods.
TIRA 292b

**TIRA 292b** is a planet orbiting the star TIRA 292 and has a close moon named TIRA 292b I. It serves as the basis for Biblaridion's speculative biology series.

## Orbital data and time

The planet is located 0.85 AU from its star, in the habitable zone. The average temperature is 20-25 degrees celsius, a little bit warmer than on Earth. When life first evolved on the planet, the atmosphere consisted of 83% N2 (Nitrogen), 10% O2 (Oxygen), 5% CO2 (Carbon dioxide), 1% H2S (Hydrogen sulfide), and 0.9% Ar (Argon), with the last 0.1% being other gasses. With the evolution of Chemophytes, and the 'plants' Incorporating large amounts of oxygen into the Atmosphere, the atmosphere as of episode 10 of Alien biospheres is about 50% Nitrogen, 30% Oxygen, with the CO2 levels dropping to about 0.05% of the atmosphere and the Hydrogen sulfide levels dropping to less than 0.04%, although many species of chemotrophes still use the hydrogen sulfide as an energy source; with the rest of the atmosphere being water vapor and other gasses like argon.

### iAxis

The planet’s axial tilt is less than Earth’s, causing less seasonal variation.

## Planet data

The Planet has an iron core, creating a powerful magnetic field. However, its gravity is only 80% (0.8G) compared to Earth's, due to the planet being less dense and massive than earth. The radius is almost identical to earths 6,371 kilometer radius, but most likely isn't exactly identical to earths radius.

### Atmosphere

The atmosphere is largely similar to ancient Earth, consisting primarily of nitrogen and oxygen and containing small amounts of argon. The most notable differences are the higher concentrations of carbon dioxide (5% of the ancient atmosphere) and the noticeable presence of hydrogen sulfide (1% of the ancient atmosphere). The presence of hydrogen sulfide has noticeably shaped the development of the planet: the oceans are acidic, and precipitation usually consists of acid rain, leaving the mountains eroded. This has also had a profound effect on the development of life: the primary form of autotrophs are chemoautotrophs rather than phototrophs, and all organisms have tolerance to acidic environments.

    Between 4000ma and 4210ma, the Carbon Dioxide level dropped from 1.00% to around 0.05%, and the Hydrogen Sulfide level dropped from around 0.37% to around 0.04%.
Lithuania In AeternumVision

### The History Of Lithuania •

Lithuania Debuted In The First Edition Of The AeternumVision Song Contest. They Took Part In The Semi Finals And The Grand Final Show Of Edition One. Lithuania's Debut Entrant Was “Pray” Performed By Ginta & Leon Somov And It Placed XX In The Grand Final.

### Lithuanian Broadcaster •

The Lithuanian Broadcaster Was Selected To Be LRT Televizija, Formerly Known As LTV 1, Is The Flagship Television Channel Of Lithuanian National Radio And Television, The National Public Broadcasting Company Of Lithuania. LRT Televizija Was Launched On 30 April 1957. Eurovision Aaronas Is The Executive Supervisor For The Delegation.
Glyphonychidae

## Description

"The glyphonychids are a clade of mesocarnivorous cryptonychids that have developed venom glands within the innermost claws of their front limbs, in such a way that when the muscles in the foot contract to extend the claw, they simultaneously compress the gland to secrete the venom along grooves lining the claw. This serves both as a hunting tool and as a defense against predators, for which reason many species have evolved aposematic coloration."- Biblaridion. As a group living on Septentria, they live with animals like their prey and local herbivores, omnivores,and smaller carnivores like Pterolophids, Theristobrachids, Phractoformes, Coryphodonts, Cryptonychids, larger carnivores and predators like Hybognathids,the Rhabdopod, Colobathristes borchmori, Archonychids, Compsopoda as well as many species of animals animals such as Malacoformes and basal Osteopods and many arboreal, semi aquatic and fully-aquatic species.
Flagellifera

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Distropheognatha

Neodistropheognatha

**Flagellifera**

## Description

The flagelliferans are some of the smallest of all the distropheognathans and of all osteopods in general. They’ve evolved hyper-extended antennae-like pedipalps riddled with scent and taste receptors to pick out the tiniest scrap of food. They’re extremely tenacious generalists, capable of feeding on virtually anything they come across. The posterior end of their abdomen has enlarged to house an enormously expanded reproductive system, letting them produce clutches of dozens of grubs at a time. Note that I’ve given the primary eyes on this model eyeshine, but that will only be visible at night, and during the day, the membrane of skin around the eye will contract to make the “pupil” smaller. Some flagelliferans retain the cooperative breeding of their ancestors, while others have reverted back to standard monogamy. Also, being acrocheirids, they still regurgitate predigested food from their caecum to feed their young. Their grubs look pretty much the same as other rhamphodont grubs.
HARBOR CREEK Wiki

**Welcome to the HARBOR CREEK Wiki!**
We're a collaborative community website that anyone, including you, can build and expand. Wikis like this one depend on readers getting involved and adding content. Click the "ADD NEW PAGE" or "EDIT" button at the top of any page to get started!

*Community Founders*: Write a good and paragraph-length description here about your topic. Let your readers know what your topic is about and add some general information about it. Then you should visit the admin dashboard for more tips.

## Important articles

PlaceholderA page about your topicPlaceholderA Main CharacterPlaceholderThe First EpisodePlaceholderAn Important LocationPlaceholderA Key EventPlaceholderA Crucial Item

*Need help building out this community?*

* Getting Started
* How to Contribute
* Managing your new community
* Guides
* All Help articles

You can also be part of the larger Fandom family of communities. Visit Fandom's Community Central!
TIRA 292b I

**TIRA 292b I** is the sole moon orbiting the planet TIRA 292b.

## Orbital and Moon Data

TIRA 292b I orbits about 318,550 kilometers away from its host planet; this is shorter than the distance between Earth and its moon, which is approximately 384,400 kilometers. This contributes to TIRA 292b I’s ability to create tides that are almost three times as high as those created on Earth.

TIRA 292b I is roughly 50% more massive than Earth’s moon, with a radius of about 1,188 kilometers (10% larger than our moon’s radius), and a density that is approximately 16% greater than that of Earth’s moon. This results in TIRA 292b I’s gravity being about 27% times stronger than our moon’s gravity.

The moon supposedly has no atmosphere, and is implied to look very similar to Earth's moon.
Cryptonychidae

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Archerhamphodontidae

Coryphodontia

Septentriformes

**Cryptonychidae**

## Immediate subtaxa

Theristobrachidae

Glyphonychidae

***Cryptonychidae*** is a clade of Septentriform coryphodonts that adapted for arboreal lifestyles to avoid the compsopods and other ground based predators.

## Description

Cryptonychids are so named for their signature claws, which have special tendons attatched to them that retract the claws into a fleshy sheath when not in use so as to keep them sharp so they can still grant purchase during climbing. While basal cryptonychids have diverged very little from this lifestyle, more derived forms have found other solutions to dealing with predators such as size and strength and even venom in their claws.
Crescentia

**Crescentia** [ˈkɹɛ.sənʃa] [ (lit. "crescent-shaped) is an island southeast of the Eastern continent, notable for its highly unique ecosystem.

## Description

Having been separate from the mainland before the emergence of terrestrial life, Crescentia has an ecosystem unlike anything on the planet. In that sense, it is analogous to real-world Madagascar. While the island's exact size is unclear, it is large enough to be seen on a world map.

Like the rest of the planet, Crescentia's climate was initially warm and tropical, consisting of swamps and jungle. However, with the onset of the ice age, the island's climate shifted to seasonal forests and tundra, leading to the extinction of much of the island's fauna.

### Flora

While not covered in much detail, the plant life of Crescentia is dramatically different from that of the mainland. Most of the trees consist of Coelophytes, with ground vegetation being formed by various (albeit unexplored) groups of Eucaulophytes. As far as what can be determined, no groups of brachyphytes (including chromatophytes) exist on the island.

### Fauna

Barring the ubiquitous malacoforms, the fauna on Crescentia can be traced to three ancestral migrations. The earliest of these lineages is the notoforms, the only clade of archedesmostracans to survive extinction. The second is a clade of platydonts called the xenodonts. The most recent lineage is a clade of allodonts known as the eriotheres, who arrived during the ice age (a time where much of Crescentia's fauna had been in decline).
Aquatic feeding mechanisms

Aquatic animals have evolved a variety of different feeding mechanisms to minimize the risk that, due to the density of water is, when a predator lunges at a prey item, the resulting turbulence may push the prey out of the predator’s reach.

## Suction-feeding

Suction-feeding is used to draw the prey and the surrounding water into the mouth, like  groupers and bass on earth.

## Protusion

Some marine creature have extendible jaws can dart forward to grab prey without producing appreciable turbulence. Like the sling jaw wrasse, goblin sharks, and dragonfly larvae on earth.

On TIRA 292B, dorypods use this feeding mechanism.

## Planktonivore diet

Creatures with a planktonivore diet generellay only need to go through clouds of plankton and trying to get the more at once to get all the nutrition they need, like Ptilopods.

## External link

* Aquatic feeding mechanisms on Wikipedia
Biomes

Like Earth, TIRA 292b features a wide array of biomes, which have developed over billions of years in response to the changing climate and geology of the planet.

## Terrestrial

### Primitive Forest

 *Main page**:* Primitive Forest The first terrestrial biome to exist on the planet, which lasted for roughly 100 million years. The ancestors to virtually every form of terrestrial life first appeared in this biome, including the Malacoformes, three major lineages of Diplostomes, and the four major lineages of Osteopoda. The climate within these ancient forests were warm, wet and tropical, filled with fast forests of Xylophytes and lush marshes. However, this forest would eventually begin to dwindle with the decline of atmospheric carbon dioxide and hydrogen sulfide, as well as the climate changes that followed.
Today, this primitive forest survives in the form of rain forests and patches of regular forest scattered around the world

### Desert

As of Alien Biospheres Episode 9, there are two deserts: The larger one on the western side of the supercontinent and the smaller to the east we only have documentation of what lives in the western desert

### Tropical Rainforest

There are three Tropical rainforests located on the supercontinent. They experience warm, rainy weather year-round, and host the greatest sources of biodiversity found anywhere on the planet. As of episode 9, we only have documentation of what lives in the eastern rainforest.

## Oceanic

Given the complexity of the oceanic environment, as well as the relatively simplified coverage, it is difficult to categorize TIRA 292b's massive ocean effectively. Listed below are some of the most well-covered areas.

### Intertidal Zone

These areas are submerged beneath the waters at high tide and exposed during low tide. Due to TIRA 292b's moon, the planet's intertidal zone is significantly larger than that seen on Earth. It was in this area where the Neostoma lineage evolved.

### Anthostome Reefs

 *Main page**:* Reefs of sessile anthostomesRoughly equivalent to coral reefs on Earth.
Archechlamypteridae

**Archechlamypteridae** (lit. “old chlamypterans”) is a clade of generalist archechlamypterans that have largely retained the characteristics of the original chlamypterans. Members of this clade serve as a sister clade to the temnorhynchids, which have specialized for active predation of larger animals.
Panhylotheria

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

**Panhylotheria**

## Immediate subtaxa

Hylotheria

Thrinaxorhynchidae

***Panhylothera*** is a clade of neoacrocheirids consisting of the arboreal hylotheres and the aquatic thrinaxorhynchids.
Kophodontidae

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Stenopsidae

Neostenopsidae

Ceratodontia

Neoceratodontia

Isodontia

**Kophodontidae**

## Description

The kophodonts are a clade of fairly small ceratodonts that have specialized for durophagy, having evolved extremely strong wrench-like pedipalps and enlarged rounded exognaths to give them powerful crushing bites. Many species are scavengers that crack open the bones of carcasses, but there are also herbivorous species adapted to gnawing on tough woody vegetation.
Aratrodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Stenopsidae

Neostenopsidae

Ceratodontia

Neoceratodontia

**Aratrodontia**

## Description

Aratrodonts are one of the comparatively few clades of herbivorous ceratodonts, their exognaths having lengethened into many-pronged tusks, antlers, and other complex structures used variously for digging up roots and tubers, competing for mates, and fending off predators. In many species, these tusks have undergone Fisherian Runaway and become overly large and unwieldy display structures.
Megantroformes

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Procaecoformes

Euprocaecoformes

**Megantroformes**

## Description

The **Megantroforms** are a widespread clade of euprocaecoforms that adaped to fill the niches of megafaunal grazers after the mass extinction. Species of megantroform range in size from a few meters long to the largest terrestrial herbivores since the titanopods. To support their giant cephalothoraxes and expanded foreguts, their spines have huge bony struts that act as anchors for powerful muscles. Most megantroforms are not selective in their feeding and as such the pedipalps have reduced into almost vestigial structures to keep out of the way of the massive foreclaws as they indiscriminately gorge on any low growing vegetation.
Archelastospondylidae

## Taxonomy

Anthostoma

Gastrozoa

Tentaclostoma

Neostoma

Lophostoma

Diplostoma

Stenostraca

Coleostraca

Elastospondyli

Archelastospondyli

**Archelastospondylidae**

**Archelastospondylidae** (lit. “old elastospondyls”) is a clade that includes all of the original elastospondyls.

## Description

An archelastospondylid is currently recognized as being an elastospondyl that is neither an opisthopteran nor a kentrodont. Modern archelastospondylids lead more or less identical lives to the ancestral elastospondyls, filling the niches of arboreal ambush predators. When hunting or moving quickly through its environment in general, an archelastospondylid positions its two widely-spaced sets of limbs close together, bending the creature’s long, flexible gladius into a tight curve. It then releases its legs, letting the spine-like structure snap back into place, which causes the animal to be suddenly launched forward. If its target was a unsuspecting prey animal like a tree-dwelling archeplatydontid, the archelastospondylid would then proceed to use its many feeding tentacles lined with sharp teeth to inflict serious bites on the victim.
TIRA 292

**TIRA 292** is a star orbited by the planet TIRA 292b.

 Radius
 Lifetime
 Temperature
 Habitable Zone | 0.83-1.19 AU

TIRA 292's physical properties do not match those of any real-life star, however there are many known stars which are very similar in nearly every way. Notable examples of these within a hundred-light-year radius include 61 Virginis, both stars of Zeta Reticuli, and HD 38858.
Peloropsidae

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Stenopsidae

Neostenopsidae

**Peloropsidae**

## Immediate subtaxa

Archepeloropsidae

Anaxotheriidae

**Peloropsids** are a clade of stenopsids that evolved shortly after the Mass Extinction Event and with the arrival of megafaunal herbivores.

## Description

The stenopsids had the advantage over the rhamphodonts due to their larger size and derived mouthparts and pedipalps, making them somewhat preadapted for predation. Peloropsids have modified this arrangement by adapting their centaurized forelimbs into laterally opposed, raptorial appendages used to latch onto and pull prey closer to the pedipalps which are thin and dagger-like.

Pleropsids were quick to diversify into a number of predatory niches: some of them are steppe dwelling pursuit predators that chase down smaller prey like small oligopods; others are agile, semi-arboreal forms hunting prey such as hylotheres and scandopods; and robust ambush predators. One clade of this latter group would be come so large as to be the first megafaunal, hypercarnivorous, top order carnivores: the anaxotheres.
Eriotherinae

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Euallodontia

**Eriotherinae**

**Eriotherinae** (lit. “woolly beasts”) is a clade of euallodonts whose ancestors crossed the sea ice south of the the eastern continent during the ice age, made it to Crescentia, and were stranded on the island after the ice melted.

## Description

The early eriotheres likely lived in a similar way to the other allodonts, using endothermy and their efficient limb configuration to hunt prey and subsisting on vegetation when necessary. With the onset of the ice age, the ancestral eriotheres independently evolved a shaggy coat of fur from their vestigial setae to further resist the cold. This, along with their generalist diet and small body size, allowed them to survive the perilous trek across the sea ice between the eastern continent and Crescentia, which likely occurred as a means of escaping the fierce competition happening on the mainland.
Dermatopoda

## Description

   The dysopterans are flightless platypterans that come to colonize Septentria shortly after the mass extinction. While the chlamypterans were constrained by the tiny size of the Pyronesian islands, Septentria’s size allows the dysopterans to achieve a much greater diversity and range of niches and body sizes
Coryphodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Archerhamphodontidae

**Coryphodontia**

## Immediate subtaxa

Archecoryphodontia

Septentriformes

***Coryphodontia*** are a clade of rhamphodonts that initially evolved on the supercontinent but have since adapted into diverse forms on Septentria.

## Description

Coryphodonts originally evolved in the rainforests of the mainland from basal rhamphodonts that adapted to a more above ground lifestyle in the wake of the mass extinction. Their foot claws have sharpened to allow them to climb and scamper over rough terrain and their upper mandibles have a pair crest-like projections that are used in various species for display, assistance in getting prey from the leaflitter, or both. Mainland species are quite inconspicuous mesopredators, but the more derived Septentrian clades have become quite substantial species in Septentrian ecosystems.
Neoplatydontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Archeplatydontia

Archeplatydontidae

**Neoplatydontia**

## Immediate subtaxa

Neoplatydontidae

Pleuroptera

**Neoplatydontia** (lit. “new platydonts”) is a clade of archeplatydonts originally native to the eastern rainforest. It includes the climbing-specialized scandopods and harpactopods, as well as the flying pleuropterans.

## Description

Not much is known about the original neoplatydonts due to them never being described in their own right, but some details can be inferred based on what is known about their descendants. All extant clades that have neoplatydonts as their direct ancestors evolved in the far eastern tropical rainforest, so it can be assumed that the original neoplatydonts were a lineage of archeplatydontids residing in that region. Additionally, the earliest known neoplatydonts were quite small in comparison to other closely-related platydonts, so it’s possible that small body sizes were a key characteristic of the original neoplatydonts. Lastly, an early neoplatydont clade that is overall the most similar to the ancestral platydonts are the scandopods, so its also possible that the first neoplatydonts were quite similar to the scandopods. Not many other notable details are known.
Phractoformes

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Archerhamphodontidae

Coryphodontia

Septentriformes

**Phractoformes**

## Description

Descending from the same ancestors as the cryptonychids, the phractoformes are a clade of Septentrian coryphodonts that have evolved splint-like plates of armor along their cephalothorax and backs. They range from 1-3 meters long, and most species are grazers in open areas. Their lower mandibles have tusk-like extensions that, along with the claws on the forelimbs, are used to dig up the root networks of brachyphytes other ground vegetation. Phractoformes act as Septentria's dominant clade of grazers while the rhabdopods browse on higher vegetation.
Archarhamphodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

**Archarhamphodontia**

## Immediate subtaxa

Coryphodontia

Apodomorpha

***Archerhamphodontia*** is a clade of rhamphodonts that is a subclade ofEurhamphodontia and includes all nonacrocheirid rhamphodonts.
Euxylophyta

## Taxonomy

Chemophyta

Xenophyta

Xylophyta

**Euxylophyta**

## Immediate subtaxa

Archexylophyta

Nodophyta

**Euxylophyta** (lit. "true xylophytes") is a clade of common xylophytes. This clade divides into archexylophytes and nodophytes.

## Description

The term "Euxylophyta" is used to describe the branch of xylophytes separate from the altiphytes. In the modern day, euxylophytes are most often found in regions with moderate to low levels of precipitation, as they would be outcompeted by the altiphytes in particularly wet areas.
Dryptognatha

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Distropheognatha

Neodistropheognatha

**Dryptognatha**

## Description

Most species are small mesocarnivores, ranging from about 30 centimeters to nearly 2 meters long. They’re prohibited from moving into the niches of larger predators from competition with the xenopsids. Their mandibles end in narrow, pincer-like points that let them cut through meat while the proximal portions of the mandibles end in serrated apparatuses that allow them to chew through tougher materials like bone, shells, and plant matter in times of scarcity.
Neodistropheognatha

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Edaphotheria

Eurycheiridae

Lystrocheiridae

Trypanocheiridae

Rhamphodontia

Acrocheiridae

Euacrocheiridae

Neoacrocheiridae

Heterognatha

Distropheognatha

**Neodistropheognatha**

## Immediate subtaxa

Hadronychidae

Daptodontia

***Neodistropheognatha*** is a subclade of distropheognathans consisting of all nonbasal distropheognathans, from the hadronychids to the dryptognaths to the flagelliferans.
Cyanolaimus sahari

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Archeplatydontidae

*Unspecified*

Xenodontia

Brachiocephalia

***Cyanolaimus sahari***

***Cyanolaimus sahari*** (lit. “Sahara’s blue-throat”) is a species of brachiocephalian.

## Description

An adult *C. sahari* measures about one meter in height, and possesses a dark grayish coloration that fades to an almost blue-like color around the lower portions of the limbs and, quite prominently, the underside of the head, along what could be considered the throat. From the front of the head to the animal’s rear end, it has four small-yet-robust flat-toothed mandibles, a pair of large pedipalps that each bear a single, hook-like claw, a pair of larger, permanently-raised forelimbs that each bear a single, hook-shaped claw in addition to a smaller claw further up the “hand,” and three pairs of weight-bearing legs that each terminate in a blunt, hoof-like claw. Each pair of legs is slightly smaller and more sprawled than the one in front of it. The animal also has a pair of gonopods located near the posterior end of the body; these limbs are used to help facilitate the transfer of gametes during the mating process, and are usually kept curled under the body. A *C. sahari* has six fixed eyes positioned around the sides of its head for a full view of any food sources or threats around it, and also presumably has a cluster of small setae around the base of each pedipalp that serves as a basic hearing mechanism. The animal also possesses a pair of spiracles lined with debris-filtering setae; the spiracles are used both for respiration and smelling.

Members of *C. sahari* are browsing herbivores, using their hooked pedipalps in tandem with their raised forelimbs to bring leaves to their robust mandibles. Food is then masticated and passed into the mouth to be digested with the help of a multi-chambered foregut.

It can be assumed that the method of reproduction used by *C. sahari* is comparable to that of the original osteopods, in that after mating, a female individual lays a large ootheca containing a nutritious yolk and a group of embryos. The embryos complete the majority of their development before they hatch.

Like most native large-bodied Crescentian species, *C. sahari* was negatively affected by the ice age. Due to individuals of the species lacking any effective thermoregulatory mechanisms, they likely struggled to survive the rapid climate upheaval that transformed Crescentia’s lush, tropical forests into frigid tundras and seasonal biomes. On top of this, Crescentia later came to be inhabited by the much more cold-resistant eriotheres, which presumably began to overtake the island’s preexisting niches. *C. sahari*’s current prospect is unclear.
Theristobrachidae

## Description

The gryponychids are a clade of medium-sized herbivorous cryptonychids that use the retractable claws on their forelimbs hook down vegetation. Though there are a few species that retain the semi-arboreal lifestyle of their ancestors, many are too large to be supported by tree branches and have taken up a ground-dwelling existence.
Temnorhynchidae

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Archeplatydontia

Archeplatydontidae

Neoplatydontia

Pleuroptera

Theroptera

Chlamyptera

**Temnorhynchidae**

**Temnorhynchidae** (lit. “cutting snout”) is a clade of carnivorous chlamypterans native to Pyronesia.

The temnorhunchidae is the largest predator on Pyronesia, its is 80 cm in height, but they are smaller than its most common prey, the hypsirhynchidae. They can run 35 km per hour in a type of gallop and uses its pedipalps, that have evolved into sickle-like claws, to tear and dismember its prey.

**Temnorhynchidae Died Out In The Extinction.**
Pachychelaphora

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Archexenopsidae

Euxenopsidae

Neoxenopsidae

Chelaphora

Pachychelaphorans (belonging to the clade Pachychelaphora) are a clade of omnivorous Chelphoran Xenopsids that have robust crushing claws that allow them to crush hard food items and subsist on fruit, eggs and small prey such as Diplostomes.
Elaphrodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Dromaeopoda

Onychodontia

Allodontia

Thecopoda

Amphidontia

Xenopsidae

Stenopsidae

Neostenopsidae

Ceratodontia

Neoceratodontia

Isodontia

**Elaphrodontia**

## Immediate subtaxa

Archelaphrodontia

Neoelaphrodontia

***Elaphrodontia*** is a diverse clade of ceratodonts fill a wide variety of mesopredatory and some apex predator niches and form a sister clade to the kophodonts.

## Description

Elaphrodonts are defined against other ceratodonts by their centaurism, running on only their four hind pairs of limbs. This grants them some of the greatest speed and agility among xenopsids, allowing them to effectively compete with other predators for niches. Older forms use their exognaths to assist in snatching and restraining prey, but more derived clades have repurposed their pedipalps and exognaths for different killing strategies.

**IMMEDIATE SUB-TAXA**

Spathodontia - quick ambush predators that hunt small prey

Xyrodontia - speedy pursuit predators that hunt megafauna

## Notes

* Elaphrodonts are erroneously shown to be 25 meters tall (taller than most if not all sauropod dinosaurs), when in actuality, they are 25 centimeters tall (around the height of a domestic cat) due to a typo.
Pyronesia

## Description

**Pyronesia** (lit. “fire islands”) is an archipelago that was formed by a volcanic hotspot in a remote region of the ocean northeast of the eastern continent, during the ice age.

## Flora

The first plant species to successfully grow on Pyronesia were likely chromotaphytes carried to the islands by flying animals like the pleuropterans, as the chromatophytes, originally being epiphytes, could grow in the absence of true soil. As the chromatophytes spread throughout the archipelago, they gradually transformed the upper barren rock layers into mineral-rich soil, allowing larger species of caulophyte to take root. These plants eventually created soil conditions sufficient for trees to grow, but as it would be infeasible for any xylophyte spores to make it to the islands, the niches of trees were taken up by a group of eucaulophytes that developed tough, inflexible support tissues to grow to much greater heights, becoming the trees known as nothodendrons.

## Fauna

Chlamyptera and from them Temnorhynchidae and Hypsirhynchidae. Migratory Opisthoptera and Ubiquitous Malacoformes
Reefs of sessile anthostomes

The **Reefs of sessile anthostomes** is a biome that can be found on the shallows along the coasts.

## Description

The marine snow and abundant plankton cultivate huge reefs of sessile anthostomes, providing a habitat for a unique assemblage of organisms.

## Locomotion forms

The complex landscape of the reefs favors specializations for maneuverability among species, including Anguilliform swimming and Median-paired fin swimming.

Many species retain a long, slender body shape to help squeeze through confined spaces among the stands of archeanthostomes.

### Comparison between Pelagic Zone and Anthostome Reefs

In some ways, the differences between the reefs and open ocean is analogous to the difference between the forests and the steppe; in the open sea, where there’s virtually no form of cover or shelter, it pays to be optimized for speed, but the complex landscape of the reefs favors specializations for maneuverability.

## Organisms

* Sessile anthostomes
* Orthorhachia
* Anostraca
* Coelopoda
* Trichopoda
Myxobolidae

## Description

   The myxobolids are a clade of desmostracans that have evolved projectile weaponry: their anterior excretory glands have evolved into nozzle-like organs that fire a chemical spray. In many species, the spray consists of a noxious foul-smelling liquid that repels potential attackers, while other species instead produce strands of sticky web-like slime that can entangle and entrap malacoforms and other small prey.
First Marine Ecosystem

The **First Ecosystem** or **Primitive Ocean** is the first biome that existed on TIRA 292 B. It contains the first living things which are the first different branches of the evolutionary tree of TIRA 292 B.

## Ecosystem base

The basic structure of the oceanic foodwebs has remained much as it has been for many millions of years : sunlight provides energy for countless billions of microscopic phototrophs, or phytoplankton, while the atmospheric hydrogen sulfide sustains equally prolific swarms of chemotrophs, chemoplankton. All these autotrophs will be food for tiny zooplankton like the anthostome larvae and the tachypods, and these in turn serve as an abundant food source for larger zooplankton like the gastrozoan larvae.
Euctenognatha

Redirect to:

* Ctenognatha
Note: currently, "Euctenognatha" merely refers to *any and all* Ctenognathans that are not Necroformes. As it is established that Ctenognatha is a highly diverse clade, it does no justice to create a separate Euctenognatha page, as there is nothing to truly distinguish them.
TIRA 292B Eastern continent

The Eastern continent of TIRA 292b is the smaller of the 2 main landmasses formed after the separation of the supercontinent around 4300ma.

## Overview

The eastern continent has changed relatively little since the beginning of the ice age. Much of the continent consists of tropical steppe and gallery forests, with little landmass within the temperate zones. Most notably, the eastern coast is home to the largest rain forest on the planet, hosting up to 10% of all species on the planet.

### Flora

The eastern jungle is home to Carnophytes and Altiphytes, both endemic to the region. While Chromatophytes evolved in the jungle as well, they were carried to the western continent by migrating Pleuropterans.

### Fauna

Clades endemic to the eastern jungle include the Harpactopods and Kentrodonts, as well as multiple clades of Malacoformes. The gallery forests are home to Stylopods, Camptopods, Malleognathans and Cryptodonts.
Euxenodontia

## Taxonomy

Polypodia

Sarcopodia

Neopoda

Osteopoda

Polyschia

Platydontia

Archeplatydontia

Archeplatydontidae

*Unspecified*

Xenodontia

**Euxenodontia**

## Immediate subtaxa

Streptotarsi (predatory xenodonts)

Archexenodontia (original xenodonts)

**Euxenodontia** (lit. “true xenodonts”) is a clade consisting of all known xenodonts that are not the browsing brachiocephalians. This clade includes the original omnivorous archexenodonts, as well as the predatory streptotarsans.

## Description

The first euxenodonts became their own distinct group when the browsing brachiocephalians evolved; at that time, the euxenodonts could simply be considered xenodonts that hadn’t yet deviated from their ancestral lifestyle very significantly. These basal animals were arboreal generalists, not unlike the closely related archeplatydontines on the mainland. They had long, flexible limbs, used to span the gaps between tree branches, and had sharp claws on their feet to securely grip them. Early species had relatively small body sizes; this characteristic contributed to their ancestors’ ability to survive their voyage across the sea between the supercontinent and Crescentia.

While many later euxenodonts retain this lifestyle, some (particularly the streptotarsans) have undergone adaptations for ones that are quite different.