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E_(s)=6.11*10^((7.5 T)/(237.3+T))
The saturation vapor pressure over water, 
E_(s), measured in hectopascals, is the vapor pressure of the air when the number of water molecules condensing equals the number evaporating from a flat surface of water. The equation shown models the relationship between 
E_(s) and the temperature, 
T, in degrees Celsius, of the air and water. Which of the following best describes the meaning of 6.11 in this context?
Choose 1 answer:
(A) This is the saturation vapor pressure when the temperature is 0 degrees Celsius.
(B) This is the saturation vapor pressure when the temperature is 1 degree Celsius.
(C) This is the saturation vapor pressure when the temperature is 10 degrees Celsius.
(D) This is the saturation vapor pressure when the temperature is 100 degrees Celsius.

Es=6.11107.5T237.3+T E_{s}=6.11 \cdot 10^{\frac{7.5 T}{237.3+T}} \newlineThe saturation vapor pressure over water, Es E_{s} , measured in hectopascals, is the vapor pressure of the air when the number of water molecules condensing equals the number evaporating from a flat surface of water. The equation shown models the relationship between Es E_{s} and the temperature, T T , in degrees Celsius, of the air and water. Which of the following best describes the meaning of 66.1111 in this context?\newlineChoose 11 answer:\newline(A) This is the saturation vapor pressure when the temperature is 00 degrees Celsius.\newline(B) This is the saturation vapor pressure when the temperature is 11 degree Celsius.\newline(C) This is the saturation vapor pressure when the temperature is 1010 degrees Celsius.\newline(D) This is the saturation vapor pressure when the temperature is 100100 degrees Celsius.

Full solution

Q. Es=6.11107.5T237.3+T E_{s}=6.11 \cdot 10^{\frac{7.5 T}{237.3+T}} \newlineThe saturation vapor pressure over water, Es E_{s} , measured in hectopascals, is the vapor pressure of the air when the number of water molecules condensing equals the number evaporating from a flat surface of water. The equation shown models the relationship between Es E_{s} and the temperature, T T , in degrees Celsius, of the air and water. Which of the following best describes the meaning of 66.1111 in this context?\newlineChoose 11 answer:\newline(A) This is the saturation vapor pressure when the temperature is 00 degrees Celsius.\newline(B) This is the saturation vapor pressure when the temperature is 11 degree Celsius.\newline(C) This is the saturation vapor pressure when the temperature is 1010 degrees Celsius.\newline(D) This is the saturation vapor pressure when the temperature is 100100 degrees Celsius.
  1. Understand Equation and Constant: Understand the equation and identify the constant.\newlineThe equation Es=6.11×10(7.5×T237.3+T)E_{s}=6.11\times10^{\left(\frac{7.5\times T}{237.3+T}\right)} models the relationship between the saturation vapor pressure EsE_{s} and the temperature TT in degrees Celsius. The constant 6.116.11 is a part of this equation, and we need to determine its significance.
  2. Analyze Role of 6.116.11: Analyze the equation to determine the role of 6.116.11. To understand the meaning of 6.116.11, we need to consider the equation at a specific temperature. The most logical temperature to consider is 00 degrees Celsius, as it is a standard reference point for many scientific measurements.
  3. Substitute T=0T=0: Substitute T=0T=0 into the equation to see the effect on EsE_{s}. If we substitute T=0T=0 into the equation, we get Es=6.11×10(7.5×0237.3+0)E_{s}=6.11\times 10^{\left(\frac{7.5\times 0}{237.3+0}\right)}. This simplifies to Es=6.11×100E_{s}=6.11\times 10^{0}, since any number to the power of 00 is 11.
  4. Calculate Vapor Pressure: Calculate the saturation vapor pressure at 00 degrees Celsius.\newlineNow, we calculate EsE_{s} with T=0T=0: Es=6.11×100=6.11×1=6.11E_{s}=6.11\times10^{0} = 6.11\times1 = 6.11. This means that the saturation vapor pressure at 00 degrees Celsius is 6.116.11 hectopascals.

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