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A diver at the bottom of a lake, where the water temperature is 4.0 °C, observes a bubble of gas travel up to the surface of the lake. For this lake, at the surface the pressure is 1.0 atmosphere and the water temperature is 27.0 °C. The ratio of the bubble volume at the surface to the bubble volume at the bottom of the lake is 5.42. Assume the bubble behaves as an ideal gas. (a) Calculate the pressure, in Pascals, of the gas in the bubble at the bottom of the lake. Give your answer in scientific notation and specified to an appropriate number of significant figures, in the empty box below. pressure of gas in bubble at bottom of lake = Р₁ = Pa (b) The bubble can be assumed to be approximately spherical and contains 4.0 × 1017 molecules of gas. Calculate the radius of the bubble, in mm, at the bottom of the lake. Give your answer by entering a number, specified to an appropriate number of significant figures, in the empty box below. radius of bubble at bottom of lake = mm

A diver at the bottom of a lake, where the water temperature is 4.0 °C, observes a bubble of gas travel up to the surface of the lake. For this lake, at the surface the pressure is 1.0 atmosphere and the water temperature is 27.0 °C. The ratio of the bubble volume at the surface to the bubble volume at the bottom of the lake is 5.42. Assume the bubble behaves as an ideal gas. (a) Calculate the pressure, in Pascals, of the gas in the bubble at the bottom of the lake. Give your answer in scientific notation and specified to an appropriate number of significant figures, in the empty box below. pressure of gas in bubble at bottom of lake = Р₁ = Pa (b) The bubble can be assumed to be approximately spherical and contains 4.0 × 1017 molecules of gas. Calculate the radius of the bubble, in mm, at the bottom of the lake. Give your answer by entering a number, specified to an appropriate number of significant figures, in the empty box below. radius of bubble at bottom of lake = mm

College Physics
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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A diver at the bottom of a lake, where the water temperature is 4.0 °C, observes a bubble of gas travel up to the surface of the lake. For this lake, at the surface the pressure is 1.0 atmosphere and the water temperature is 27.0 °C. The ratio of the bubble volume at the surface to the bubble volume at the bottom of the lake is 5.42. Assume the bubble behaves as an ideal gas. (a) Calculate the pressure, in Pascals, of the gas in the bubble at the bottom of the lake. Give your answer in scientific notation and specified to an appropriate number of significant figures, in the empty box below. pressure of gas in bubble at bottom of lake = Р₁ = Pa (b) The bubble can be assumed to be approximately spherical and contains 4.0 × 1017 molecules of gas. Calculate the radius of the bubble, in mm, at the bottom of the lake. Give your answer by entering a number, specified to an appropriate number of significant figures, in the empty box below. radius of bubble at bottom of lake = mm
Transcribed Image Text:A diver at the bottom of a lake, where the water temperature is 4.0 °C, observes a bubble of gas travel up to the surface of the lake. For this lake, at the surface the pressure is 1.0 atmosphere and the water temperature is 27.0 °C. The ratio of the bubble volume at the surface to the bubble volume at the bottom of the lake is 5.42. Assume the bubble behaves as an ideal gas. (a) Calculate the pressure, in Pascals, of the gas in the bubble at the bottom of the lake. Give your answer in scientific notation and specified to an appropriate number of significant figures, in the empty box below. pressure of gas in bubble at bottom of lake = Р₁ = Pa (b) The bubble can be assumed to be approximately spherical and contains 4.0 × 1017 molecules of gas. Calculate the radius of the bubble, in mm, at the bottom of the lake. Give your answer by entering a number, specified to an appropriate number of significant figures, in the empty box below. radius of bubble at bottom of lake = mm
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