Théories Pokémon/Game Theory: Your Shiny Pokemon is DOOMED to Die!
Game Theory: Your Shiny Pokemon is DOOMED to Die!

Game Theory: Your Shiny Pokemon is DOOMED to Die!

The Game Theorists12 min27 févr. 2021
Game Theory explores the real-world biology behind shiny Pokémon and why they're destined to perish in nature.
7 chapitres
  • Introduction to Shiny Pokémon(0'581'59)
    Shiny Pokémon are rare variants of creatures with different color palettes than normal members of their species, such as black Charizards, blue Ponyta, and golden Magikarp.
    Appearance rates range from 1 in 500 to 1 in 8,192, making shinies extremely difficult to find and catch.
    • Provides rare collectibles for players to chase • Creates badges of honor to show other players • Generates merchandise sales opportunities
    Shiny Pokémon mirror real-world biology, where unusual color variants occur naturally in animals throughout the animal kingdom.
  • Real-World Shiny Animals(1'593'42)
    • Black sheep with unusual dark coloration • Black-backed jackals with reddish fur variants • Giant pandas with reddish or brownish fur instead of black and white
    Blue lobsters are so rare they have approximately a 1 in 4 million chance of appearing in nature, making them rarer than Pokémon shinies.
    • Ball pythons with white skin covering most of their body • Badgers with reddish-brown fur instead of typical black coloration
    Sea turtles, whales, elk, and zebras also display unusual pigmentation variants in nature.
  • Genetic Basis of Color Variation(3'425'19)
    • Extra proteins like in lobsters • Enzyme deficiencies like in jackals and badgers • Melanin production effects like in snakes and sea turtles
    High boldism is genetically similar to albinism, where the body cannot produce enough melanin, affecting eye pigment and causing vision problems and photosensitivity.
    • Lack of melanin in eyes can cause legal blindness • Paler skin greatly increases risk of sun damage and skin cancer • Animals cannot use protective measures like sunglasses or sunscreen
    Bright coloration makes animals stand out to predators, reducing their ability to survive to adulthood and pass on genes.
  • Predation and Camouflage(5'196'30)
    Zebras have stripes that confuse predators when moving in groups, making it difficult for lions to identify individual targets.
    Animals with different colors from their herd stand out, making them easier for predators to track and more likely to become prey before breeding.
    Being an unusual color is helpful in captivity where collectors prize rare variants, similar to how trainers prioritize catching shiny Pokémon.
    In nature, unusual colors make animals much more likely to die, but in human care they become treasured trophies due to their rarity.
  • Inheritance and Breeding Methods(6'308'24)
    Color variants in nature are hereditary and passed down from parent to child, so the likelihood of unusual coloration depends on parental genetics.
    Two shiny Pokémon parents do not increase the likelihood of shiny offspring in modern games, except in Generation 2 where DVs determined shininess.
    • Breeding Pokémon from different language versions increases shiny chance by five times • Named after Game Freak director Junichi Masuda who programmed the mechanic • Designed to bind international Pokémon communities together through trading
    Trading for a Ditto from a friend with a different language version optimizes shiny breeding chances.
  • Inbreeding and Real-World Shinies(8'2410'02)
    The Masuda method contradicts real biology: while different Pokémon parents increase shinies, real-world unusual colors result from inbreeding and lack of genetic diversity.
    The brown panda is likely the result of inbreeding; as pandas become rarer, there is less genetic variety in the breeding pool.
    • A Kentucky family with blue skin due to methymoglobinemia • Result of 200 years of isolation in the Appalachian Mountains • Shows how lack of genetic diversity causes unusual pigmentation in humans
    Birth defects become more common when parents are closely related, making unusual pigmentation a marker of genetic problems rather than beneficial diversity.
  • Conclusion and Game Theory(10'0212'16)
    If the Masuda method were biologically accurate, breeding Pokémon from different regions would reduce shiny chances, not increase them.
    The Masuda method is intentionally unrealistic to the real world in favor of encouraging international player connections and trading.
    Real-world unusual colors result from genetic mutations and inbreeding, both of which reduce fitness and survival chances in the wild.
    While shiny Pokémon are desirable collectibles, in nature they represent genetic disadvantages that make survival unlikely without human protection.