Answer:
The correct answer is a.
Explanation:
The explosive reaction depends on the amount of gas dissolved in the magma and its viscosity.
Low-viscosity magmas allow gases to easily escape to the surface, reducing the likelihood of an explosive release. While high viscosity magnets retain the gases and increase the pressure producing a greater probability of an explosive release occurring.
This magma when it reaches high pressures and when it overcomes the resistance it encounters, escapes violently, giving rise to an explosive eruption.
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Answer:
<u>T2 = 745 K</u>
Explanation:
This is an ideal gas law problem. We can use this formula to find our answer:
(P1*V1)/T1 = (P2*V2)/T2
So we have these given in the problem:
P1 = 78 atm P2 = 45.2 atm
V1 = 21 L V2 = 30.0 L
T1 = 900 K T2 = ?
So we put all of this stuff into the equation and solve for the unknown T2:
[(78 atm)*(21 L)]/(900 K) = [(45.2 atm)*(30.0 L)]/T2
(1638 atm*L)/900 K = (1356 atm*L)/T2
1.82 atm*L/K = (1356 atm*L)/T2
[flip around to put T2 on the numerator and alone]
T2 = (1356 atm*L)/1.82 atm*L/K
[atm*L cancel out to leave us with K]
T2 = 745.0549451
<u>T2 = 745 K</u>
2Nz + H2 = 2NHz
2KCIO3 = 2KCI + 3O2