233 g of water at 16°C is contained in a copper container of mass 287 g. An additional 134 g of water at 100°C is added. What is the final equilibrium temperature if we treat thesystem's water and container as isolated? Use the heat capacity values from the table
233 g of water at 16°C is contained in a copper container of mass 287 g....
A 309 g block of copper at a temperature of 73.0°C is dropped into 579 g of water at 26.9°C. The water is contained in a 118 g glass container. Assume the glass has the same initial temperature as the water (26.9°C). What is the final temperature of the mixture? The specific heat of copper is 387 J/kg˚C, the specific heat of water is 4186 J/kg˚C, and the specific heat of glass is 837 J/kg˚C.
To determine the specific heat of an object, a student heats it to 100 ∘C in boiling water. She then places the 87.2 g object in a 173 galuminum calorimeter containing 136 g of water. The aluminum and water are initially at a temperature of 19.8 ∘, and are thermally insulated from their surroundings. If the final temperature is 23.4 ∘, what is the specific heat of the object? Referring to the table, identify the material in the object. Substance...
SETR To determine the specific heat of an object, a student heats it to 100 C in boiling water. She then places the 50.1 g object in a 187 g aluminum calorimeter containing 105 g of water. The aluminum and water are initially at a temperature of 19.9 °C, and are thermally insulated from their surroundings. Part A If the final temperature is 22.4 C, what is the specific heat of the objed? Express your answer using two significant figures....
A 28 g block of ice is cooled to −78◦C. It is added to 562 g of water in an 80 g copper calorimeter at a temperature of 21◦C. Find the final temperature. The specific heat of copper is 387 J/kg ·◦C and of ice is 2090 J/kg ·◦C . The latent heat of fusion of water is 3.33 × 105 J/kg and its specific heat is 4186 J/kg ·◦C . Answer in units of ◦C. i need help asap
A 26 g block of ice is cooled to −62 ◦C. It is added to 569 g of water in an 80 g copper calorimeter at a temperature of 27◦C. Find the final temperature. The specific heat of copper is 387 J/kg · ◦C and of ice is 2090 J/kg · ◦C . The latent heat of fusion of water is 3.33 × 105 J/kg and its specific heat is 4186 J/kg · ◦C . Answer in units of ◦C.
A 25 g block of ice is cooled to −74 ◦C. It is added to 559 g of water in an 80 g copper calorimeter at a temperature of 21◦C. Find the final temperature. The specific heat of copper is 387 J/kg · ◦C and of ice is 2090 J/kg · ◦C . The latent heat of fusion of water is 3.33 × 105 J/kg and its specific heat is 4186 J/kg · ◦C . Answer in units of ◦C.
015 10.0 points A 34 g block of ice is cooled to -80°C. It is added to 562 g of water in an 75 g copper calorimeter at a temperature of 24°C. Find the final temperature. The specific heat of copper is 387 J/kg. °C and of ice is 2090 J/kg.°C. The latent heat of fusion of water is 3.33 x 10° J/kg and its specific heat is 4186 J/kg.°C. Answer in units of°C.
015 10.0 points A 20 g block of ice is cooled to -87°C. It is added to 566 g of water in an 64 g copper calorimeter at a temperature of 24°C. Find the final temperature. The specific heat of copper is 387 J/kg-°C and of ice is 2090 J/kg-PC. The latent heat of fusion of water is 3.33 x 10° J/kg and its specific heat is 4186 J/kg . °C. Answer in units of °C.
015 10.0 points A 31 g block of ice is cooled to -80°C. It is added to 547 g of water in an 98 g copper calorimeter at a temperature of 25°C Find the final temperature. The specific heat of copper is 387 J/kg °C and of ice is 2090 J/kg-oC. The latent heat of fusion of water is 3.33 × 105 J/kg and its specific heat is 4186 J/kg .°C. Answer in units of C
Steam at 100°C is condensed into a 54.0 g copper calorimeter cup containing 300 g of water at 21.0°C. Determine the amount of steam (in g) needed for the system to reach a final temperature of 48.0°C. The specific heat of copper is 387 J/(kg · °C).