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  • Variable Star Temperature Change with Luminosity Increase
    Here's how to approach this problem, keeping in mind that we're dealing with a simplified model:

    Understanding the Relationship

    * Luminosity and Temperature: A star's luminosity (total energy output) is directly related to its temperature. The relationship is described by the Stefan-Boltzmann Law:

    * L = σAT⁴

    * L = Luminosity

    * σ = Stefan-Boltzmann constant

    * A = Surface area

    * T = Temperature

    * Flux and Luminosity: Flux is the amount of energy received per unit area. If a star's luminosity increases, its flux at a given distance also increases.

    Solving the Problem

    1. Flux and Luminosity: Since the flux increased by a factor of 625, the star's luminosity also increased by a factor of 625.

    2. Stefan-Boltzmann Law: We know L is proportional to T⁴. If luminosity increased by a factor of 625, we can set up a proportion:

    * 625 = (T₂/T₁)^4

    3. Solving for Temperature Change:

    * (625)^(1/4) = T₂/T₁

    * 5 = T₂/T₁

    * T₂ = 5T₁

    Conclusion

    The temperature of the variable star increased by a factor of 5.

    Important Note: This is a simplified model. In reality, the temperature change in a variable star is more complex and depends on the type of variability (e.g., pulsating, eruptive) and other factors.

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