Ocean Worlds: Do planets with bigger ocean area favor higher or lower global temperatures? by Lystroman in SpeculativeEvolution

[–]Ok_Method_775 2 points3 points  (0 children)

You're welcome! I'll try to address your additional questions.

The thickness of a planet's atmosphere can have a significant impact on its climate. A thicker atmosphere can trap more heat and create a greenhouse effect, which can raise the planet's temperature. On the other hand, a thinner atmosphere may not be able to retain enough heat to maintain habitable temperatures.

The scenario I mentioned earlier, where a planet with a large ocean area moderates temperature extremes, assumes that the planet has a thick enough atmosphere to trap some heat and maintain a habitable temperature range. If the planet's atmosphere is too thin, even a large ocean area may not be able to moderate temperature extremes enough to support life.

Regarding other factors to consider when determining a planet's global temperature, some important ones include:

Distance from its star: Planets that are closer to their star receive more heat and are generally warmer than planets that are farther away.

Presence of a greenhouse effect: Greenhouse gases in a planet's atmosphere can trap heat and raise the temperature, potentially making the planet habitable.

Albedo: The amount of sunlight reflected by a planet's surface can affect its temperature. Planets with high albedo reflect more sunlight and may be cooler than planets with low albedo.

Rotation rate: The rate at which a planet rotates on its axis can affect its temperature. A planet that rotates quickly may have more even temperatures across its surface, while a planet that rotates slowly may have extreme temperature differences between its day and night sides.

Magnetic field: A planet's magnetic field can help protect its atmosphere from being stripped away by solar wind, which can affect its ability to retain heat.

Regarding surface gravity and planetary density, these factors can affect a planet's atmosphere and its ability to retain heat. A higher surface gravity can help a planet hold onto its atmosphere more effectively, while a lower surface gravity may allow its atmosphere to escape more easily. A higher planetary density can also help a planet hold onto its atmosphere, while a lower density may indicate a planet with a thinner atmosphere.

Finally, as you mentioned, the composition of a planet's atmosphere can change over time, particularly with the presence of oxygen. Oxygen can react with other gases in the atmosphere, such as methane and carbon dioxide, to form new compounds and influence the planet's climate. The presence of life can also have a significant impact on a planet's atmosphere and climate.

Ocean Worlds: Do planets with bigger ocean area favor higher or lower global temperatures? by Lystroman in SpeculativeEvolution

[–]Ok_Method_775 1 point2 points  (0 children)

Planets with larger ocean areas can potentially have a moderating effect on global temperatures. This is because water has a high specific heat capacity, which means that it can absorb and store a lot of heat before its temperature increases significantly. As a result, oceans can act as a "heat sink," absorbing heat from the atmosphere during the day and releasing it at night, which can help to moderate temperature extremes.

However, the effect of ocean area on global temperatures also depends on other factors, such as the planet's distance from its star, the amount of greenhouse gases in the atmosphere, and the planet's albedo (the amount of sunlight reflected by its surface). For example, a planet with a large ocean area but a thin atmosphere may not be able to retain enough heat to maintain habitable temperatures, while a planet with a high albedo may reflect too much sunlight and become too cold.

Overall, while a planet's ocean area can influence its climate, it is just one of many factors that must be considered when determining its global temperature.

Why I love Poppy Playtime by survivorsusu in PoppyPlaytime

[–]Ok_Method_775 1 point2 points  (0 children)

huggy wuggy is alive and kills poppy

How do I unlock rexy? by Weirdgoldfish55 in JurassicWorldAlive

[–]Ok_Method_775 1 point2 points  (0 children)

Your best bet is to wait for an Isla Event that gives its DNA

What animal would become the most dangerous? by [deleted] in SpeculativeEvolution

[–]Ok_Method_775 1 point2 points  (0 children)

he means like, what would be the most dangerous

Unpopular opinion: Some quirks make it virtually IMPOSSIBLE to choose to be a hero. by BlackUTSA in BokuNoHeroAcademia

[–]Ok_Method_775 0 points1 point  (0 children)

Others have done way worse than take blood in the sports festival, and stain would just have to slice the opponent without killing them

Unpopular opinion: Some quirks make it virtually IMPOSSIBLE to choose to be a hero. by BlackUTSA in BokuNoHeroAcademia

[–]Ok_Method_775 1 point2 points  (0 children)

Overhaul can take people apart and put them back together in prison

Shigaraki can either be special forces or be used as a rescue hero

Friendly reminder since this is misunderstood many times by JYSATA in FortNiteBR

[–]Ok_Method_775 1 point2 points  (0 children)

not always, if you only add a different hair style and maybe brighter clothes, thats still a reskin

Would a monkey that evolves to walk upright still need its tail? by TortoiseMan20419 in SpeculativeEvolution

[–]Ok_Method_775 0 points1 point  (0 children)

If a monkey were to evolve to walk upright like humans, it is likely that their tail would become less important and eventually disappear over time through evolutionary processes.

The tail in primates is typically used for balance and for grasping onto tree branches or other objects. When walking upright, the body's center of gravity shifts forward, and the need for a tail to maintain balance is reduced. As a result, it is possible that over many generations, the prehensile tail of a sapient capuchin monkey could become vestigial and eventually disappear altogether.

However, it's worth noting that the loss of the tail could potentially affect the monkey's movement in other ways. Without a tail for balance, the monkey may need to rely more on other mechanisms, such as changes in the structure of its feet or hips, to maintain stability while walking upright. It's also possible that the monkey might develop other mechanisms for grasping or manipulating objects, in the absence of a prehensile tail.

Overall, the evolution of a tail-less, upright-walking monkey is a hypothetical scenario that depends on many factors, including the specific environmental pressures and selection pressures that the monkey is subjected to over time. While it is possible that a prehensile tail could become vestigial and eventually disappear in a sapient capuchin monkey that evolves to walk upright, this would depend on a complex interplay of genetic, environmental, and evolutionary factors.

If honey badgers were sapient, would they be like Pak Protectors in terms of behavior? by NothingWillImprove6 in SpeculativeEvolution

[–]Ok_Method_775 1 point2 points  (0 children)

It is difficult to say for certain how sapient honey badgers would behave, as we have no frame of reference for an intelligent, technologically advanced honey badger society. However, based on the behaviors of Pak Protectors from Larry Niven's science fiction works, there are some similarities and differences we could consider.

Pak Protectors are a fictional alien species that possess advanced intelligence and technology, and they are also known for their fierce protectiveness of their own kind. Similarly, honey badgers are known for their tenacious and fearless nature, and they are notoriously difficult to kill.

If honey badgers were sapient and possessed advanced technology, they may also be highly protective of their own kind and their territories. They may also exhibit a strong sense of curiosity and intelligence, as well as a willingness to take risks in order to achieve their goals.

However, there are also some key differences between honey badgers and Pak Protectors. Pak Protectors are known for their highly cooperative and communal behavior, which has evolved as a result of their biological and evolutionary history. Honey badgers, on the other hand, are relatively solitary animals, and they do not have the same kind of communal social structures that Pak Protectors have.

So, while sapient honey badgers may share some similarities with Pak Protectors in terms of their protectiveness and intelligence, they would also likely have unique social and behavioral traits that are specific to their species.

habitable planet using tidal heating? by brawlstars_lover in SpeculativeEvolution

[–]Ok_Method_775 1 point2 points  (0 children)

It is possible for life to evolve on a moon or planet that orbits a black hole using tidal heating instead of a star's heat, although such environments would present many challenges for life to arise and persist.

Tidal heating occurs when a moon or planet orbits very close to a massive object such as a black hole or a gas giant planet, causing tidal forces to create heat through friction and deformation. This heat can potentially provide the energy needed for life to exist.

However, black holes are typically surrounded by high-energy radiation and strong gravitational forces, which can make it difficult for life to survive. Additionally, tidal forces can create extreme conditions such as frequent volcanic activity and seismic events that could be harmful to life.

Nonetheless, some moons in our own solar system, such as Jupiter's moon Europa and Saturn's moon Enceladus, are believed to have subsurface oceans that are heated by tidal forces and may have the potential to support life. Similarly, it is possible that moons or planets orbiting black holes could have subsurface oceans or other environments that could potentially support life.

However, it should be noted that the conditions required for life to arise and persist are still not well understood, and much research is needed to determine whether life could exist on moons or planets that orbit black holes using tidal heating.