Answer:
The vapor pressure of ethanol at 60.61 °C is 327.56 mmHg
Explanation:
using Clausius-Clapeyron equation
where;
ΔH is the enthalpy of vaporization of ethanol = 39.3 kJ/mol
R is ideal gas constant = 8.314 J/mol.K
P₁ is the initial pressure of ethanol at T₁ = 1.00 × 10² mmHg
P₂ is the final pressure of ethanol at T₂ = ?
T₁ is the initial temperature = 34.9°C = 307.9 K
T₂ is the final temperature = 60.61°C = 333.61 K
Therefore, the vapor pressure of ethanol at 60.61 °C is 327.56 mmHg
Answer:
α or He⁴₂
Explanation:
*The computer does not allow for the 4 and 2 to be directly inline
The alpha particle can be notated as a simple "α". Since that symbol is the letter alpha in Greek. Another way of notating the particle is "He⁴₂" (where the 2 is directly under the 4), this is because an alpha particle contains the exact same components of a helium nucleus, two protons, and two neutrons (with an atomic mass of four).
b. more slowly than S waves.
c. at the same speed as S waves.
d. faster than S waves.
A seismogram shows that P waves travel faster than S waves. The answer is letter D. This is because P waves can push and pull the sound waves through a liquid or solid medium. The S wave can only move to the solid medium and solids have more compact molecules than the liquid so it travels slow.
A seismogram shows that P waves travel faster than S waves. The answer is letter D. This is because P waves can push and pull the sound waves through a liquid or solid medium. The S wave can only move to the solid medium and solids have more compact molecules than the liquid so it travels slow.
Explanation:
Because P waves are the fastest seismic waves, they will ordinarily be the original 1 that your seismograph records. The following set of seismic waves on your seismogram will be the S waves. These are normally higher than the P waves. Often they are the only waves filmed a long distance from medium-sized earthquakes.