Two hundred thirty grams of water at 0°C is brought into contact with a heat reservoir at 92°C. After thermal equilibrium is reached, what is the temperature of the water (in °C)? (The specific heat of water is 4,186 J/(kg · °C).) 92 v °C After thermal equilibrium is reached, what is the temperature of the reservoir (in °C)? 92 °C How much heat (in J) has been transferred in the process? (Enter the magnitude. Round your answer to at least four significant figures.) 88575.76 What is the entropy change of the water (in J/K)? (Round your answer to at least one decimal place.) 279 x J/K What is the entropy change of the reservoir (in J/K)? (Round your answer to at least one decimal place.) -2.43E-2 x J/K What is the entropy change of the universe (in J/K)? J/K

Two hundred thirty grams of water at 0°C is brought into contact with a heat reservoir at 92°C. After thermal equilibrium is reached, what is the temperature of the water (in °C)? (The specific heat of water is 4,186 J/(kg · °C).) 92 v °C After thermal equilibrium is reached, what is the temperature of the reservoir (in °C)? 92 °C How much heat (in J) has been transferred in the process? (Enter the magnitude. Round your answer to at least four significant figures.) 88575.76 What is the entropy change of the water (in J/K)? (Round your answer to at least one decimal place.) 279 x J/K What is the entropy change of the reservoir (in J/K)? (Round your answer to at least one decimal place.) -2.43E-2 x J/K What is the entropy change of the universe (in J/K)? J/K