Avalon - Revision history

Tholin at 17:58, 27 October 2026

2026-10-27T17:58:40Z

← Older revision		Revision as of 17:58, 27 October 2026
Line 68:		Line 68:
	About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago, though didn’t develop complex organisms until the progression of the Great Oxygenation Event. The presence of oxygen was instrumental in powering the diversity explosion 300 million years ago, during which almost every animal phyla that would ever exist on Avalon came into existence within a relatively short span of time. The intervening time between 900 million and 300 million years ago is often named "The Boring 600" as not much biological or geological evolution occurred on Avalon during this time.		About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago, though didn’t develop complex organisms until the progression of the Great Oxygenation Event. The presence of oxygen was instrumental in powering the diversity explosion 300 million years ago, during which almost every animal phyla that would ever exist on Avalon came into existence within a relatively short span of time. The intervening time between 900 million and 300 million years ago is often named "The Boring 600" as not much biological or geological evolution occurred on Avalon during this time.

	Immediately following the diversity explosion, the first photosynthetic lifeforms began to spread onto land, constrained to the coastal regions by harsh climates further inland. The same diversity explosion eventually gave rise to Invertebrates 150 million years ago, then Vertebrates shortly after.		Immediately following the diversity explosion, the first photosynthetic lifeforms began to spread onto land, constrained to the coastal regions by harsh climates further inland. The same diversity explosion eventually gave rise to Invertebrates 150 million years ago, then Vertebrates shortly after. These species too would spread onto land and eventually give rise to all modern native species of animals on Avalon. By 8 million years ago, this evolution gave rise to the first [[Avalids]], ancestors of the modern [[Avali]].

			Though physiologically very different, these avalids developed intelligence and became pack animals as a means of surviving in their environment, building the first tools and using them, amongst other things, to create and control [https://en.wikipedia.org/wiki/Fire fire] as early as 400 thousand years ago. Avali creativity dates back to about 150 thousand years ago, 50 thousand years before the first modern Avali appeared. These would go on to become the only surviving species of avali, before spreading all across Avalon’s surface, practicing a nomadic lifestyle. The first instances of agriculture and permanent settlements by avali were recorded approximately 20 thousand years ago, and mark the very beginnings of recorded avali history.

Tholin at 17:50, 27 October 2026

2026-10-27T17:50:02Z

← Older revision		Revision as of 17:50, 27 October 2026
Line 66:		Line 66:
	It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today. Due to reactions between the oxygen and ammonia, this also had the effect of skewing the water and ammonia contents of the oceans until reaching an equilibrium near its modern-day ratio.		It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today. Due to reactions between the oxygen and ammonia, this also had the effect of skewing the water and ammonia contents of the oceans until reaching an equilibrium near its modern-day ratio.

	About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.		About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago, though didn’t develop complex organisms until the progression of the Great Oxygenation Event. The presence of oxygen was instrumental in powering the diversity explosion 300 million years ago, during which almost every animal phyla that would ever exist on Avalon came into existence within a relatively short span of time. The intervening time between 900 million and 300 million years ago is often named "The Boring 600" as not much biological or geological evolution occurred on Avalon during this time.

			Immediately following the diversity explosion, the first photosynthetic lifeforms began to spread onto land, constrained to the coastal regions by harsh climates further inland. The same diversity explosion eventually gave rise to Invertebrates 150 million years ago, then Vertebrates shortly after.

Tholin at 15:43, 27 October 2026

2026-10-27T15:43:15Z

← Older revision		Revision as of 15:43, 27 October 2026
Line 58:		Line 58:
	Avalon formed approximately 2.31 billion years ago, shortly after its parent planet. Similarly to the planets, it coalesced out of a disk of gas and dust, though it formed inside a smaller disk orbiting Valaya, rather than the larger protoplanetary disk surrounding Solakku, with the material composing the former having been captured from the latter.		Avalon formed approximately 2.31 billion years ago, shortly after its parent planet. Similarly to the planets, it coalesced out of a disk of gas and dust, though it formed inside a smaller disk orbiting Valaya, rather than the larger protoplanetary disk surrounding Solakku, with the material composing the former having been captured from the latter.

	The atmosphere of Avalon ~~would’ve formed later~~ from volcanic activity and outgassing, ~~though~~ its initial thickness was thinner than it is today. After ~~formation~~, Avalon’s surface rapidly cooled, causing volatile ices, including water and ammonia, to freeze solid. However, pockets of water, having condensed out of the atmosphere during this cooling process, formed underground, where they were kept liquid by tidal heating and geothermal heat.		The atmosphere of Avalon didn’t form until after the moon’s formation. Sourced from volcanic activity and outgassing, its initial thickness was thinner than it is today. After this initial activity, Avalon’s surface rapidly cooled, causing volatile ices, including water and ammonia, to freeze solid. However, pockets of water, having condensed out of the atmosphere during this cooling process, formed underground, where they were kept liquid by tidal heating and geothermal heat.

	These underground oceans were left isolated until 1.6 billion years ago, during which time the first Prokaryotic cells ~~would’ve~~ developed around geothermal vents and spread out from there. At the same time, Solakku’s luminosity had been slowly increasing, all the while volcanic activity enriched the atmosphere of Avalon with greenhouse gases, leading to temperatures rising to above the melting point of ammonia. Eventually, geological activity caused the forming ammonia surface oceans to make contact with the underground water oceans, causing them to mix. This process is known as The Great Nitrification event and lasted until 1.3 billion years ago, when Avalon’s surface temperature largely ~~stabelized~~ and the two sets of oceans became ~~fully~~ mixed with each other.		These underground oceans were left isolated until 1.6 billion years ago, during which time the first Prokaryotic cells developed around geothermal vents and spread out from there. At the same time, Solakku’s luminosity had been slowly increasing, all the while volcanic activity enriched the atmosphere of Avalon with greenhouse gases, leading to temperatures rising to above the melting point of ammonia. Eventually, geological activity caused the thus forming ammonia surface oceans to make contact with the underground water oceans, causing them to mix. This process is known as The Great Nitrification event and lasted until 1.3 billion years ago, when Avalon’s surface temperature largely stabilized and the two sets of oceans became evenly mixed with each other.

	At the time, the average composition of the oceans would’ve been more skewed towards a higher ammonia content than today, with geological evidence suggesting a ammonia content as high as 80%. The early, water-based life would’ve been forced to adapt to the sudden presence of Ammonia, a toxic substance for those early cells, causing a mass-extinction event out of which the first ammonia-based single-celled organisms emerged. ~~These~~ Prokaryotes ~~would~~ then ~~go on to become~~ the common ancestor to all modern life on Avalon.		At the time, the average composition of the oceans would’ve been more skewed towards a higher ammonia content than today, with geological evidence suggesting a ammonia content as high as 83%. The early, water-based life would’ve been forced to adapt to the sudden presence of Ammonia, a toxic substance for those early cells, causing a mass-extinction event out of which the first ammonia-based single-celled organisms emerged, alongside rare ammonia-tolerant, water-based species. The former went on to form the first Prokaryotes that then became the common ancestor to all modern life on Avalon.

	It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today.		It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today. Due to reactions between the oxygen and ammonia, this also had the effect of skewing the water and ammonia contents of the oceans until reaching an equilibrium near its modern-day ratio.

	About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.		About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.

Tholin at 10:39, 8 September 2026

2026-09-08T10:39:48Z

← Older revision		Revision as of 10:39, 8 September 2026
Line 56:		Line 56:
	== Natural History ==		== Natural History ==

	Avalon formed approximately 2.31 billion years ago, shortly after its parent planet. Similarly to the planets, it coalesced out of a disk of gas and dust, though it formed inside a smaller disk orbiting Valaya, rather than the larger protoplanetary disk surrounding Solakku, ~~though~~ the material composing the former ~~would have~~ been captured from the latter.		Avalon formed approximately 2.31 billion years ago, shortly after its parent planet. Similarly to the planets, it coalesced out of a disk of gas and dust, though it formed inside a smaller disk orbiting Valaya, rather than the larger protoplanetary disk surrounding Solakku, with the material composing the former having been captured from the latter.

	The atmosphere of Avalon would’ve formed later from volcanic activity and outgassing, though its initial thickness ~~would’ve been~~ thinner than it is today. After formation, Avalon’s surface rapidly cooled, causing volatile ices, including water and ammonia, to freeze solid. However, pockets of water, having condensed out of the atmosphere during this cooling process, formed underground, where they were kept liquid by tidal heating and geothermal heat.		The atmosphere of Avalon would’ve formed later from volcanic activity and outgassing, though its initial thickness was thinner than it is today. After formation, Avalon’s surface rapidly cooled, causing volatile ices, including water and ammonia, to freeze solid. However, pockets of water, having condensed out of the atmosphere during this cooling process, formed underground, where they were kept liquid by tidal heating and geothermal heat.

	These underground oceans were left isolated until 1.6 billion years ago, during which time the first Prokaryotic cells would’ve developed around geothermal vents and spread out from there. At the same time, Solakku’s luminosity had been slowly increasing, ~~together with~~ volcanic activity ~~enriching~~ the atmosphere ~~above~~ with greenhouse gases, leading to temperatures rising to above the melting point of ammonia. Eventually, geological activity caused the forming ammonia surface oceans to make contact with the underground water oceans, causing them to mix. This process is known as The Great Nitrification event and lasted until 1.3 billion years ago, when Avalon’s surface temperature largely stabelized and the two sets of oceans became fully mixed with each other.		These underground oceans were left isolated until 1.6 billion years ago, during which time the first Prokaryotic cells would’ve developed around geothermal vents and spread out from there. At the same time, Solakku’s luminosity had been slowly increasing, all the while volcanic activity enriched the atmosphere of Avalon with greenhouse gases, leading to temperatures rising to above the melting point of ammonia. Eventually, geological activity caused the forming ammonia surface oceans to make contact with the underground water oceans, causing them to mix. This process is known as The Great Nitrification event and lasted until 1.3 billion years ago, when Avalon’s surface temperature largely stabelized and the two sets of oceans became fully mixed with each other.

	At the time, the average composition of the oceans would’ve been more skewed towards a higher ammonia content than today, with geological evidence suggesting a ammonia content as high as 80%. The early, water-based life would’ve been forced to adapt to the sudden presence of Ammonia, a toxic substance for those early cells, causing a mass-extinction event out of which the first ammonia-based single-celled organisms emerged. These Prokaryotes would then go on to become the common ancestor to all modern life on Avalon.		At the time, the average composition of the oceans would’ve been more skewed towards a higher ammonia content than today, with geological evidence suggesting a ammonia content as high as 80%. The early, water-based life would’ve been forced to adapt to the sudden presence of Ammonia, a toxic substance for those early cells, causing a mass-extinction event out of which the first ammonia-based single-celled organisms emerged. These Prokaryotes would then go on to become the common ancestor to all modern life on Avalon.
Line 66:		Line 66:
	It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today.		It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today.

	About 1.3 billion years ago, ~~about~~ halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.		About 1.3 billion years ago, halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.

Tholin at 20:58, 26 July 2026

2026-07-26T20:58:52Z

← Older revision		Revision as of 20:58, 26 July 2026
Line 34:		Line 34:
	* 0.0273 {{earth mass}}		* 0.0273 {{earth mass}}
	}}		}}
	\| surface_grav = <!-~~-Equatorial surface gravity-->~~		\| surface_grav = {{val\|2.452\|ul=m/s2}} (0.25 ''[https://en.wikipedia.org/wiki/G-force g]'')
	\| moment_of_inertia_factor =		\| moment_of_inertia_factor =
	\| escape_velocity = {{val\|3.22\|u=km/s}}		\| escape_velocity = {{val\|3.22\|u=km/s}}

Tholin at 20:41, 26 July 2026

2026-07-26T20:41:08Z

← Older revision		Revision as of 20:41, 26 July 2026
Line 53:		Line 53:

	{{clear}}		{{clear}}

			== Natural History ==

			Avalon formed approximately 2.31 billion years ago, shortly after its parent planet. Similarly to the planets, it coalesced out of a disk of gas and dust, though it formed inside a smaller disk orbiting Valaya, rather than the larger protoplanetary disk surrounding Solakku, though the material composing the former would have been captured from the latter.

			The atmosphere of Avalon would’ve formed later from volcanic activity and outgassing, though its initial thickness would’ve been thinner than it is today. After formation, Avalon’s surface rapidly cooled, causing volatile ices, including water and ammonia, to freeze solid. However, pockets of water, having condensed out of the atmosphere during this cooling process, formed underground, where they were kept liquid by tidal heating and geothermal heat.

			These underground oceans were left isolated until 1.6 billion years ago, during which time the first Prokaryotic cells would’ve developed around geothermal vents and spread out from there. At the same time, Solakku’s luminosity had been slowly increasing, together with volcanic activity enriching the atmosphere above with greenhouse gases, leading to temperatures rising to above the melting point of ammonia. Eventually, geological activity caused the forming ammonia surface oceans to make contact with the underground water oceans, causing them to mix. This process is known as The Great Nitrification event and lasted until 1.3 billion years ago, when Avalon’s surface temperature largely stabelized and the two sets of oceans became fully mixed with each other.

			At the time, the average composition of the oceans would’ve been more skewed towards a higher ammonia content than today, with geological evidence suggesting a ammonia content as high as 80%. The early, water-based life would’ve been forced to adapt to the sudden presence of Ammonia, a toxic substance for those early cells, causing a mass-extinction event out of which the first ammonia-based single-celled organisms emerged. These Prokaryotes would then go on to become the common ancestor to all modern life on Avalon.

			It is believed that a number of these cells left their natural environment, floating upwards through the tunnels connecting the oceans until reaching the surface, where they quickly adapted to make use of starlight from Solakku as an energy source. These photosynthetic cells produced oxygen as a byproduct, initiating the Great Oxygenation Event, lasting 600 million years, during which carbon dioxide in the atmosphere was converted to oxygen. This, combined with the outgassing and evaporation caused by the rise in surface temperature, eventually transformed Avalon’s atmosphere towards the composition and thickness it has today.

			About 1.3 billion years ago, about halfway through the Great Oxygenation Event, the first Eukaryotic cells developed and filled the oceans. The first multi-cellular life developed much later, about 900 million years ago.

Tholin at 14:18, 17 July 2026

2026-07-17T14:18:06Z

← Older revision		Revision as of 14:18, 17 July 2026
Line 38:		Line 38:
	\| escape_velocity = {{val\|3.22\|u=km/s}}		\| escape_velocity = {{val\|3.22\|u=km/s}}
	\| albedo = 0.45		\| albedo = 0.45
			\| circumference = {{convert\|13238\|km\|mi}}
	\| sidereal_day = Tidally locked		\| sidereal_day = Tidally locked
	\| surface_area = {{plainlist \|		\| surface_area = {{plainlist \|

Tholin at 20:18, 9 July 2026

2026-07-09T20:18:09Z

← Older revision		Revision as of 20:18, 9 July 2026
Line 27:		Line 27:
	* 0.33 {{earth radius}}		* 0.33 {{earth radius}}
	}}		}}
			\| satellite_of = [[Valaya]]
	\| volume =		\| volume =
	\| density =		\| density =

Tholin at 20:15, 9 July 2026

2026-07-09T20:15:24Z

← Older revision		Revision as of 20:15, 9 July 2026
Line 27:		Line 27:
	* 0.33 {{earth radius}}		* 0.33 {{earth radius}}
	}}		}}
	~~\| surface_area =~~
	\| volume =		\| volume =
	\| density =		\| density =

Tholin at 20:11, 9 July 2026

2026-07-09T20:11:07Z

← Older revision		Revision as of 20:11, 9 July 2026
Line 17:		Line 17:
	\| period = {{convert\|5.322\|day\|hour}}		\| period = {{convert\|5.322\|day\|hour}}
	\| avg_speed = {{val\|10.53\|u=km/s}}		\| avg_speed = {{val\|10.53\|u=km/s}}
	\| inclination = 0°		\| inclination = {{val\|0\|u=°}}
	\| angular_dist =		\| angular_dist =
	\| long_periastron = <!--(Longitude of periastron)-->		\| long_periastron = <!--(Longitude of periastron)-->
Line 23:		Line 23:
	\| semi-amplitude =		\| semi-amplitude =
	\| star = [[Solakku]]		\| star = [[Solakku]]
	\| mean_radius = 0.~~711~~ {{earth radius}}		\| mean_radius = {{plainlist \|
			* {{val\|2107\|u=km}}
			* 0.33 {{earth radius}}
			}}
	\| surface_area =		\| surface_area =
	\| volume =		\| volume =
	\| density =		\| density =
	\| mass = 0.~~126~~ {{earth mass}}		\| mass = {{plainlist \|
			* {{val\|1.633\|e=23\|u=kg}}
			* 0.0273 {{earth mass}}
			}}
	\| surface_grav = <!--Equatorial surface gravity-->		\| surface_grav = <!--Equatorial surface gravity-->
	\| moment_of_inertia_factor =		\| moment_of_inertia_factor =
	\| escape_velocity = {{val\|4.~~724~~\|u=km/s}}		\| escape_velocity = {{val\|3.22\|u=km/s}}
	\| albedo = 0.45		\| albedo = 0.45
	\| sidereal_day = Tidally locked		\| sidereal_day = Tidally locked
			\| surface_area = {{plainlist \|
			* {{val\|55787761\|u=km2}}
			* {{val\|5.6\|u=United States}}
			}}
	}}		}}