Biegjun Geographic Location in The Rosepetal | World Anvil

Biegjun

Public astrographic record
Property of the Royal Atheneum of Hövnís, Eörpe

Biegjun is the homeworld of the Bieggjan giants, from which both the Lusoyan and the Baluke trace their ancestry. With no true night-time, and several suns competing in drenching the planet in light for most of the year, the native plant- and wildlife have had to adapt in spectacular ways to survive and thrive.   The planet’s protected status has meant it’s largely been left alone and habitation by non-natives is typically only allowed in conjunction with sanctioned research and study of the planet. Currently only a modest number of Soszukoro scientists inhabit a combined research/living-station close to the crater holding the Yggdrasil DI-44 Generation Ship wreckage, near the south pole Kuusamaj mountain range.  

Etmyology & Definition

The planet’s name is taken from the native’s language Gjevasudit and is the word for ‘parent’. It’s also used as a word for an individual, animal, spirit, or place one belongs to (often in the context ‘amu jan biegjun’, meaning ‘part of my heart’). Biegjun is made from the two roots ‘bieg’ (meaning ‘child’, ‘important’, and ‘heart’) and ‘geijun’ (meaning ‘protector’).   Bieggjan, the native’s word for themselves and their people, is of similar origin with the roots ‘bieg’ and ‘jan’, translating to ‘child me’ or ‘my heart’ depending on context. It used to be the word for ‘child’ but most modern branches of the language have replaced it with a variation of ‘mabieg’.  

Astrography

Biegjun is located in the Helsvuht system, along Asurla’s Arm and within one of the Suszukoro Reserve Zones of The Ascendancy.  
Atakieh and Likhuus blind us with their radiance while they look down upon their children.   Helsiinak and Vuhttnja stretch out their arms, comforting us with their warmth and love. Nuuhavaj would too, had they not been wandering lost.   As they sleep, Seempola stalks closer and opens their maw to devour us all.
— From a Ljuuhovii myth about the suns, the moon, and the aurora.
 

Orbit & Rotation

Biegjun has a rotational period of 20 standard hours (called a day), and a full orbital cycle of 360 orbital periods (or 360 days / 1 year).   As Biegjun is affected by five of its systems six suns plus the reflector-effect of its own planetary rings, one could argue day and night are relative concepts on the planet, and seasons are also not entirely straightforward. You’ll find more detailed information on this in the Cycles/Seasons sections under Geography.  
The Rings
Biegjun features a set of equatorial planetary rings that, depending on one’s current geographical location, can take up most of the visible sky. When not drowned out by the brilliant, intense light of the system’s many suns, the rings have a soft pinkish hue during the daytime hours. With decreasing light levels this coloration will gradually shift over to a more menacing red coloration.   From time to time, especially when the moon is the closest to the planet, ice blocks and asteroids will break loose from the rings and fall down into the planet’s atmosphere. Most are too small to make it all the way to the surface, but the landscape features several strange valleys that likely are former meteor impact sites.  
The Moon
Some distance away from the planet’s rings, a lone moon circles Biegjun in a retrograde orbit. Its movement isn’t fully spherical and won’t be visible on the sky except during the twilight hours of normal spring, autumn and winter.   During normal spring and autumn twilight hours, the moon is far enough away that it’ll only be a tiny red disc far away in the distance and won’t have any meaningful impact on the planet’s magnetic field or weather patterns.   During normal winter the moon creeps the closest and will be a significantly more menacing sight on the twilight sky. When close it can cause some erratic and dangerous weather and will also contribute to an increased likelihood of natural disasters and impact events.  
Solar Eclipses
Biegjun can experience two types of solar eclipses: either the more typical one where the moon moves in between either of the suns, or when a binary pair eclipse each other. The latter is rarely very noticeable, as it only causes a slight dimming of the light levels.   The inner suns eclipse with the moon about once a week, leaving the planet significantly darker for a couple of hours. The outer, much brighter, suns eclipse roughly once a year, and this event can last up to five days.  

Seasons

Due to its 90° axial tilt, Biegjun rotates perpendicularly to its central suns and that causes some peculiarities regarding the seasons and the day/night cycle. The planet is primarily affected by its central binary suns, the farther out orbiting binary suns and its own planetary rings, while the last two smaller suns are too weak to particularly affect light levels or temperature.   Due to the interactions between the two sets of binary suns, one could describe the planet as having two sets of four seasons each. These two sets will slowly cycle over the course of 50 years, having entirely switched places after 25 years. They’ll be distinguished as the Bright Seasons and Normal Seasons going forward.    
Bright Spring/Autumn & Spring/Autumn
One hemisphere will be facing the outer binary suns, while the equator faces the central suns, and other hemisphere will only receive light from the central suns during daytime. During the night, the other hemisphere receives reflected light from the moon and planetary rings. On average the temperature difference between a bright spring/autumn and normal spring/autumn will be about 1-2°C, attributed to the distance between Biegjun and its outer suns.   The hemisphere in the bright spring or autumn season will experience daylight during its entire rotational period, though with daytime being the same level of blinding bright as bright summers and the nighttime experiencing normal levels of daylight. There’ll be sunrise in the north and sunset in the south, but they’ll generally won’t be as noticeable as during normal spring or autumn.   The hemisphere in the normal spring or autumn season will experience brighter than normal daylight during daytime (though not as bright as during bright summer), and twilight conditions during its nighttime. There’ll be a sunrise in the north and sunset in the south, both very spectacular with the moons and rings taking on a magenta to red tint that’ll spread down to the planet. The tinted lighting will continue to last throughout most of the nighttime and fade the next sunrise.   Either version of spring or autumn lasts for typically 142-144 days, with its nighttime segment on average being 4 hours long.  
Bright Summer & Summer
One hemisphere faces the outer suns while the other faces the central suns. The entire planet will be locked in daylight at all hours for the entire length of the season. The bright and normal summer season is typically around 70-72 days long.   The hemisphere facing the outer suns will be drenched in blinding levels of daylight, the other in bright but not as bright daylight, and the equator in roughly the equivalent of normal levels of daylight. On average the temperature difference between a bright summer and normal summer will be about 2-5°C, attributed to the distance between Biegjun and its outer suns.  
Bright Winter & Winter
One hemisphere will be facing the central and outer suns, while the other will be facing away from all suns in the system. This hemisphere and most of the equator will be locked in normal levels of daylight at all hours for the entire length of the bright winter season. The bright and normal winter season is typically around 70-72 days long.   The hemisphere facing away from the suns will only receive reflected light from the moon and planetary rings during the normal winter season, causing it to be locked in twilight conditions at all hours. The planetside will be bathed in a magenta to red tinted light coming off the reflection from the moon and planetary rings, and aurora events will be very frequent. As this is also the time of the year the moon is the closest to the planet it’s also more common for natural disasters, storms, and meteor showers to occur.  

Geography

The planet features a single landmass dotted with seas and lakes. The exact landscape varies depending on climate but is on average very rocky and there’s an abundance of hills, mountains, and valleys in between pockets of forests, plains, steppes, tundras, and taigas.  

Atmosphere

Biegjun features a type I solagen-base atmosphere and is composed of 77.08% solagen, 20.95% oxygen, 0.93% argon, 0.04% carbon dioxide, and trace amounts of other gases. Water vapor accounts for roughly 28% of the atmosphere by mass.  

Hydrosphere

Biegjun’s surface water consists primarily of seas, lakes, and rivers, with the larger bodies of water concentrated along the temperate band. Except for during the normal winter season, temperatures will rarely drop low enough to freeze anything but smaller lakes and streams. Water can also be caught as fog or mist, and evaporated water in the atmosphere can fall as rain, hail, or snow depending on the weather and temperature.   About 70% Biegjun’s total water mass is found below ground, primarily beneath the mountainous regions near the north and south pole in forms of underground lakes and rivers. The largest reservoir of underground water was discovered beneath the south pole’s Kuusamaj mountain range, where rainwater from the surface pools down into a massive subterrain lake, and from there is transported deeper into the vast network of tunnels and caverns that make out the main subterrain habitat of the Tjaetsiimaj. Most of these outlets resurface eventually, either as spring lakes, geysers, or feeds large wetland regions such as the Osatthjuvi moors and Pahlamuut swamp.  
The Blueing Effect
It’s common for worlds that feature a type I solagen-base atmosphere to have its hydrosphere also contain a mineral called Bahtoanite, and Biegjun is no exception.   Most plants and wildlife feature a blue to violet baseline coloration and various temporary or permanent pigmental changes being derived from that.
The Rosepetal Galaxy
 

Astrographic Data

Region
Asurla's Wake
Sector
Suszukoro Reserve Zone
 
Orbital Position
1/1
Satellite(s)
1 (Seempola)
Sun(s)
6 (Helsiinaak, Vuhttnja, Nuuvahaj, Atjaiiol, Atakieh, Lihkuus)
 
Riftgate(s)
2 (Lusoya - Biegjun - Savcsi)
 

Planetary Data

Class
Terrestial
Atmosphere
Type I (Solagen)
Primary Solvent
Water (H20)
Gravity
High (2.1 Standard)
 
Volume
Mass
 
Axial Tilt
90°
Sunrise
Seasonal or Retrograde
Spin
Perpendicular
Rotation Speed
20 Standard Hours
Orbital Period
360 Local Days
Equatorial Radius
6541.5 Kilometers
 
Mean Temperature
Climate(s)
Temperate
Subarctic
Arctic
Primary Terrain
Tundra
Steppe
Taiga
Forest
Mountain
Geographic Features
Aapimosii
Kuusamaj
Osatthjuvi
Pahlamuut
 
Known Fauna
Hukhajya
Lejipolma
Muursamul
Piddes
Soomja
Taljakka
Tjaetsiimaj
Tursatjek
Vojjsakka
Known Flora
Grenn
 

Societal Data

Government(s)
None
Polity
Tribal
 
Native Sapient(s)
Bieggjan
Immigrated Sapient(s)
Lusoyan
Population
~2.25 million
Distribution
Bieggjan, 99.99%
Lusoyan, >0.01%
 
Known Ethnicities
Gjugrenn
Lomlaa
Ljuuhovii
Tasuuhji
Major Language(s)
Gjevasudit
Goosujati
Voehn
Major Religion(s)
Soha Oajvolkijiit
 
Currency/ies
None
Major Import(s)
None
Major Export(s)
None
 
Major Nations
None
Major Settlement(s)
None
Locations of Note
Gaaijvla Kilmpakki
Suszukoro Research Station
Yggdrasil D-44 Shipwreck
 
Affiliation(s)
The Ascendancy
 

Regions

Due to its axial tilt, Biegjun per definition has neither a tropics nor polar region and instead is divided into temperature regions based on the surface’s relative distance to the suns.   Perpendicular to the equatorial band is a large temperate region that sees an average temperature of 25°C during bright summer and rarely drops below -10°C during normal winter.   Likewise, perpendicular to the north and south pole are the arctic regions that see an average temperature of 5°C during bright summer but rarely goes below -60°C during normal winter.   Between the arctic and temperate bands is a thinner subarctic region that sees an average temperature of 15°C during bright summer and -40°C during normal winter.
Flora
The boreal and taiga biomes of the subarctic and arctic regions are dominated by a family of conifer trees called Grenn, whose lumber are known to produce a very distinct alabaster wood with beautiful marbling. Its leaves, cones, and sap are collected seasonally by the Bieggjan, and also serves as the primary food source for several omnivorous and herbivorous animals during the harsher months of the year. The rest of these regions see a lot of grasses, weeds, mosses, lichens, and ferns, but not a large variety of bushes or other trees. The landscape gradually grows more barren and rockier the farther one gets into the arctic region, consisting of vast tundras and mountains.   Along the temperate band one can find a larger variety of trees and other plants, with the landscape shifting between wetlands, marshes, steppes, plains, hills, low mountains, and forests. While its considered far easier to forage for food due to the higher abundance of fruits, berries and vegetables, it’s also teeming with more dangerous wildlife.   Uniform across most plant species is that they're pale or washed out in coloration under normal light, while showing shining, bright tones of green, blue, magenta, and violet when viewed under ultraviolet light. Studies suggests a pattern of plants viewed as poisonous or toxic often having a much sharper, more distinct smell – and it may be the primary "danger" identification method on the planet rather than coloration.
Fauna
Biegjun’s wildlife is unexpectedly diverse, with scientists finding several common-ground adaptions across different species in order to handle the unusual season shifts, higher than normal gravity, and high brightness.   Higher concentrations of iron are the most common adaption, which helps produce stronger and tougher skeletal structures, often paired with higher-than-average muscle mass. On average the planets lifeforms are large and more robust for this reason. Though there’s been a few select species, such as the Tjaetsiimaj and Tursatjek, that has managed to stay at a lower body mass by their skeletons or exoskeletons having a graphene-like composition.   In order to counter the high levels of brightness from the planet's many suns, most animals rely on vision in the ultraviolet spectrum, utilize specialized eyelids functioning as visible light-spectrum filters, or are blind and rely on other senses to orient themselves. For the latter, tremor sense and increased smell and/or touch sensitivity is the most common.

Articles under Biegjun



Cover image: by RÜŞTÜ BOZKUŞ

Comments

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Feb 12, 2023 12:17 by Mochi

The level of detail in this article is breathtaking, and really inspires me to write more for my planets <3 :D

I hope you have a great day!   Explore the endless planets brimming with life of the Yonderverse! Go after creatures, discover new places, and learn about the people you find along the way.
Feb 12, 2023 18:41

Thank you Mochi, I'm really flattered.   Biegjun is probably the most ambitious piece of writing I've ever done, and its for sure the one I've poured the most time into research for. I wasn't sure at first my ideas (I think this all originates from a random "what if Earth had no night?") would turn out into something that was somewhat viable. But it for sure has been a really enjoyable journey filled with learning all manner of random things about astronomy, geology, and biology. :)

Feb 12, 2023 13:28 by C. B. Ash

Your planetary writeups are always such a work of art! I really need to take more time with mine and take lessons from how you do this. I love the system map, it's just so clean!

Feb 12, 2023 19:01

Thank you so much for your kind words and for featuring this article in your journal. It makes me really happy.   And glad you liked the system map - It was originally made just to help me with calculations on the energy budget for the planet, sunlight amount, and ensuring it was in the 'goldilock zone'. But thought it could be nice to have a visual representation accompanying the text description.

Feb 12, 2023 19:44 by C. B. Ash

It does make a nice visual representation. I'm going to have to figure out how to make some of those for my systems

Feb 12, 2023 20:28 by Sailing Ocelot

Planet articles intimidate me, but I am very inspired by your work. I feel this article is an amazing example of a well detailed location! I like how easy it is to read too, the sentences are very straight forward and well written.   How do you decide to make such precise decisions in regards to your planets? Do you tend to design planets before or after you design your species?   Once again, lovely work! I was able to find your article via Kummer Wolfe 's recommendation in their journal, "What I'm Reading! Issue 120".

~~~~~~~~ SailingOcelot
Feb 13, 2023 07:58

Thank you so much for the feedback. I've struggled in the past with getting too wordy and going off tangents in articles, so glad to hear this feels easy to read and straightforward. :)   Regarding your question, I would say it depends. Most of my worldbuilding is based off of answering a question that pops up in my mind, and/or is a part of my process for learning. I guess puzzling together worlds, species and more is a tool for me to practically apply all the theoretic knowledge that I otherwise might have difficulties memorizing. Even in my youth, before internet was widely available and accessible, I employed similar practices on pen and paper. :)   My planets got spawned from questions like: Can you live on a world with no sun? Can you live on a planet with no polar caps? What about 0 degree axial tilt? What it'd be like? In these cases, I populate them with species afterward adapted to live on them.   But a few times I've started with the species: How would life be for a sophont species with no eyes/nose? How would it be too see into ultraviolet or infrared spectrum? Is any level of classic fantasy shapeshifting feasible? How would a species voice apparatus work and their language look like if they could make sounds outside of our sound range? Where did they live in order for evolution to give them these traits?

Feb 22, 2023 09:13 by Sailing Ocelot

I love your reply! Thank you very much for taking the time to respond. It has definitely given me some food for thought.

~~~~~~~~ SailingOcelot