Summary:
Temperate Tepui World
Inhabitants: Talians
Moons: Ithar, Selune
Tal was a temperate planet dominated by immense tepui formations—vast table-top highlands rising abruptly from lower plains. These structures created extreme geographic compartmentalisation, with each tepui supporting its own climate, hydrology, and endemic ecosystems. Waterfall systems cascading from plateau edges fed major river networks and fertile lowlands below.
The dual-moon system provided long-term climatic stability while introducing layered seasonal and tidal rhythms. The Talians developed as settled agrarian societies, often confined to individual tepui systems due to natural isolation. This resulted in parallel cultural development, strong regional identities, and limited planetary political cohesion.
Summary:
Archipelago Ocean World
Inhabitants: Morans (Aquatic and Amphibious subraces)
Moons: Pelara, Neris, Oshuun
Mora was a fully archipelagic planet, lacking continuous continental landmasses. Thousands of island chains ranged from coral atolls to volcanic island arcs, each hosting dense and highly localised ecosystems. Biodiversity was exceptionally high, with rapid divergence between archipelagos.
The three-moon system generated complex and often extreme tidal interactions, enriching shallow seas and coastal zones. The Morans diverged into two primary subraces:
Aquatic Morans, adapted to open water and reef environments
Amphibious Morans, adapted to shorelines, mangroves, and intertidal regions
Moran societies were inherently maritime. Political and cultural organisation followed migration routes and island networks rather than fixed territory. Inter-archipelago contact was frequent, but planetary unification remained minimal.
Summary:
Tundra and Boreal Snow World
Inhabitants: Lethians
Moon: Khal
Leth was a cold-dominated planet consisting almost entirely of tundra, boreal forest, and permanent snowfields. Ice sheets, permafrost, and long winters defined most of the surface, with short, limited thaw periods.
The single moon produced stable seasonal cycles but offered little thermal moderation. The Lethians evolved as a cold-adapted race, clustering settlements around geothermal pockets, subglacial rivers, and sheltered valleys.
Lethian societies were conservative, communal, and survival-focused. Population density was low by necessity, and cultural continuity was prioritised over expansion or technological experimentation.
Summary:
Gaia-Class World
Inhabitants: Three major Aseran races
Moons: Kethra, Vaelor, Sythis, Ruun, Maelis, Torr, Ixa, Beloth, Naar, Calyx, Ureth, Zyra
Asera was a true Gaia planet, exhibiting long-term ecological equilibrium across its entire surface. Forests, plains, wetlands, deserts, oceans, and polar regions coexisted in sustained balance. Its position within the overlapping habitable influence of Ando and Var’s stars provided stable energy input and moderated climatic extremes.
Despite possessing twelve moons and elevated tectonic activity, Asera’s biosphere remained resilient. This allowed the emergence of three major sentient races, each adapted to different planetary zones yet capable of coexistence within an integrated planetary system.
Asera supported the highest population density and greatest societal complexity of all Pre-Erulian worlds, including urban centres, large-scale agriculture, and advanced non-magical engineering.
Summary:
Highland Forest World
Inhabitants: Kaelians
Moon: Dravos
Kael was a highland-dominated forest planet, with dense forests covering most of its surface. Vast mountain systems formed the planetary backbone, giving rise to innumerable rivers that carved deep valleys and fed fertile lowland basins.
The Kaelians evolved as a highland-adapted race, constructing settlements along ridgelines, forested plateaus, and terraced slopes. Their societies were decentralised and regionally distinct, shaped by natural barriers and limited overland connectivity.
Engineering efforts focused on water management, slope stabilisation, and forest integration rather than monumental urban development.
Summary:
Savannah Lake World
Inhabitants: Threns
Moon: Hesk
Thren was a savannah planet with no true oceans. Instead, it featured massive freshwater lakes distributed across broad continental interiors. Dominant vegetation consisted of thick, cactus-like megaflora capable of storing enormous quantities of water in underground reservoirs.
These natural water wells sustained life through prolonged dry seasons. The Threns evolved as mobile, savannah-adapted societies, migrating between lake systems and seasonal grazing zones.
Permanent settlements were rare and typically associated with stable lakes or major subterranean reservoirs. Thren culture prioritised mobility, water stewardship, and adaptive survival strategies.
Summary:
Tropical–Desert Hybrid World
Inhabitants: Virasians
Moon: Loryn
Viras was a biome-diverse planet, characterised by alternating belts of tropical vegetation and arid desert regions. Rainfall patterns were sharply regional, with lush equatorial forests giving way to dry basins, dune seas, and scrublands.
Subsurface water flows connected many of these regions, enabling ecological interdependence across otherwise hostile terrain. The Virasians developed cultures capable of operating across starkly different environments, with trade and migration linking tropical and desert populations.
Virasian societies were flexible and resilient, but deeply dependent on stable climatic cycles, making planetary disruption particularly catastrophic following the Great Convergence.
Subterranean Ice Moon
Inhabitants: Kethrans
Kethra, Asera’s largest moon, had a barren and inhospitable surface. However, massive polar ice caps fed meltwater through fissures and faults into extensive subterranean cavern systems.
These underground environments were geothermally warmed and hydrologically stable. The Kethrans evolved entirely below the surface, adapting to low light and enclosed spaces. Their societies were structurally sophisticated, relying on precise water control, stone engineering, and closed-cycle resource management.
Surface habitation was neither viable nor culturally relevant to Kethran civilisation.
Type: Fractured tectonic world
Primary star: Ando
Moons: None
Thal orbited close to Ando, where tidal stress and stellar heating exacerbated crustal instability. Any early satellites were lost due to repeated tectonic resurfacing and orbital decay.
Type: Tidally locked stone desert
Primary star: Ando
Moons: Vael (minor)
Eryn’s close orbit around Ando resulted in permanent tidal locking. Vael remained stable but inert, exerting negligible climatic influence.
Type: Volcanic rift world
Primary star: Ando
Moons: Ruun, Khar
Both moons were small and irregular, contributing to Mol’s extreme tidal heating and continuous magma upwelling.
TType: Cryogenic ice world
Primary star: Var
Moons: Ith
Sael orbited Var at great distance, receiving insufficient stellar energy to exit global ice lock. Ith followed a slow, circular orbit with minimal tidal impact.
Type: Airless iron-rich world
Primary star: Ando
Moons: None
Drin’s proximity to Ando stripped any atmosphere and prevented satellite capture or retention.
Kar
Type: Rubble proto-planet
Primary star: Circumbinary (Ando–Var)
Moons: None
Kar occupied an unstable circumbinary orbit. Low gravity and constant perturbation prevented moon formation.
Type: High-radiation inner world
Primary star: Ando
Moons: None
Velor orbited deep within Ando’s radiation well. Any early moons were lost to tidal shear or orbital decay.
Type: High-obliquity stone world
Primary star: Circumbinary (Ando–Var)
Moons: Drav-Minor
Kaen’s extreme axial tilt was reinforced by circumbinary perturbations. Drav-Minor contributed to destabilising seasonal cycles.
Type: Frozen capture world
Primary star: Var
Moons: None
A captured body from the outer system, Leth-Outer never possessed moons and remained thermally inert.
Type: Major gas giant
Primary star: Var
Moons: Numerous minor moons; major moons Orin, Thael, Kes
Varos dominated Var’s outer system, acting as a debris sink. Its moons were geologically active but sterile.
Type: Gas giant
Primary star: Circumbinary (Ando–Var)
Moons: Ithra, Keln, Vos
Andrel’s position between both stars caused long-term orbital perturbations throughout the inner system.
Type: Gas dwarf
Primary star: Ando
Moons: None
Thes retained a gaseous envelope but lacked sufficient mass to form or hold moons in Ando’s inner gravity well.
Type: Hot gas giant
Primary star: Ando
Moons: None (orbitally unstable)
Extreme stellar radiation and tidal forces prevented long-term satellite stability.
Type: Gas giant (polar-inclined orbit)
Primary star: Var
Moons: Or, Tha
Velun’s inclined orbit was likely the result of early stellar interactions. Its moons experienced intense tidal cycling and resurfacing.
Type: Proto-gaseous world
Primary star: Circumbinary (Ando–Var)
Moons: None
A failed gas giant whose thinning atmosphere and unstable orbit prevented moon formation.
Planet: Tal
A close-orbiting moon of moderate mass. Ithar generated strong coastal tides and seasonal flooding, driving extensive river systems and fertile lowlands beneath Tal’s tepui plateaus. Its orbit contributed to predictable agricultural cycles but also regional hydrological variation.
Planet: Tal
A more distant stabilising moon. Selune moderated Tal’s axial tilt and dampened long-term climate extremes. Its influence was critical in maintaining Tal’s overall temperate equilibrium.
Planet: Mora
The innermost and most influential of Mora’s moons. Pelara generated extreme tidal ranges, driving nutrient-rich upwellings that supported Mora’s exceptional marine biodiversity.
Planet: Mora
A mid-orbit moon responsible for long-period tidal surges and seasonal flooding cycles. Neris strongly influenced island erosion and archipelago reshaping over generational timescales.
Planet: Mora
The outermost moon. Oshuun stabilised Mora’s long-term climate and orbital behaviour, preventing runaway tidal chaos despite the presence of Pelara and Neris.
Planet: Leth
A small, distant moon producing limited tidal stress but stabilising seasonal cycles. Khal contributed to Leth’s long winters and predictable freeze–thaw patterns.
Planet: Asera
A mid-sized moon with an eccentric orbit. Vaelor amplified tidal stress during periastron passages, contributing to episodic seismic activity on Asera
Planet: Asera
A dense, rocky moon with high orbital inclination. Sythis contributed to long-term axial instability and regional climate oscillations on Asera.
Planet: Asera
A heavily cratered inner moon. Ruun’s gravitational interactions with neighbouring moons increased tidal complexity but had minimal direct surface effects.
Planet: Asera
A bright, reflective moon that altered nocturnal light cycles across large regions of Asera, influencing biological rhythms rather than geology.
Planet: Asera
A massive, slow-orbiting moon whose deep gravitational influence contributed to mantle stress and volcanic belt formation.
Planet: Asera
A small, fast-orbiting satellite that generated short-period tidal fluctuations, particularly affecting coastal and deltaic regions.
Planet: Asera
An irregularly shaped moon captured early in Asera’s history. Its orbit was mildly unstable, contributing to long-term orbital resonance shifts.
Planet: Asera
A distant outer moon with minimal tidal influence but significant angular momentum contribution to Asera’s satellite system.
Planet: Asera
A mid-distance moon associated with cyclic climatic modulation through orbital resonance with other satellites.
Planet: Asera
A dark, low-albedo moon absorbing significant stellar radiation. Its thermal behaviour influenced upper-atmosphere circulation on Asera.
Planet: Asera
The smallest of Asera’s named moons. Zyra exerted negligible tidal force but contributed to overall orbital complexity.
Planet: Kael
A single inclined-orbit moon responsible for Kael’s pronounced axial variation. Dravos drove strong river seasonality and sharp climatic gradients between highlands and lowlands.
Planet: Thren
A moderate-mass moon that intensified seasonal contrasts without generating extreme tides. Hesk influenced lake expansion and contraction cycles across Thren’s savannah regions.
Planet: Viras
A stabilising moon maintaining relatively consistent seasonal cycles. Loryn moderated the interface between Viras’s tropical and desert biomes, enabling long-term ecological balance.
Planet: Eryn
A minor, inert satellite with negligible tidal influence. Vael remained geologically dead throughout its existence.
Planet: Mol
A small irregular moon contributing to Mol’s tidal heating and sustained volcanic activity.
Planet: Mol
Chaotic-orbit satellite reinforcing crustal instability.
Planet: Sael
Distant, slow-orbiting moon with minimal tidal effect.
Planet: Vire
Geologically inert stabilising satellite.
Planet: Kaen
Small moon reinforcing extreme axial tilt and seasonal instability.
Planet: Varos
Large icy moon with episodic internal heating and unstable surface conditions.
Planet: Varos
Dense rocky moon undergoing frequent resurfacing due to tidal stress.
Planet: Varos
Cold, distant, and geologically inactive outer moon.
Planet: Andrel
Large radiation-battered moon incapable of atmospheric retention.
Planet: Andrel
Mid-sized moon locked in resonance, experiencing periodic tidal heating.
Planet: Andrel
Small outer moon with a slowly decaying orbit.
Planet: Kovar
Frozen, inactive satellite.
Planet: Kovar
Distant stabilising moon with minimal geological activity.
Planet: Velun
Heavily stressed moon undergoing frequent resurfacing.
Planet: Velun
Smaller companion moon with chaotic orbital behaviour.