The energy that is
essential to break one C-H bond is 414 kJ/mol. Since, there are four C-H bonds
in CH4, the energy Δ HCH4 for
breaking all the bonds is calculated as Δ HCH4 = 4 x bond energy of C-H bond. By
multiplying the 4 with the 414 kJ/mol you can get the answer of 1656 kJ/mol CH4
molecules.
The number of energy levels to which an electron can jump depends on the amount of energy the electron possesses. Each energy level has a specific amount of energy an electron needs to have before it can be in there. So, if an electron doesn't have enough energy to be in that energy level then it won't jump to that higher level.
Answer:
253.5 K
Explanation:
Charles law equation, which is as follows is used to solve this question:
V1/T1 = V2/T2
Where;
V1 = initial volume (Litres)
V2 = final volume (Litres)
T1 = initial temperature (K)
T2 = final temperature (K)
According to the numerical information provided in this question:
V1 = 4.0 L
V2 = 3.0 L
T1 = 65°C = 65 + 273 = 338K
T2 = ?
Using V1/T1 = V2/T2
V1T2 = V2T1
T2 = V2 × T1/V1
T2 = 3 × 338/4
T2 = 1014/4
T2 = 253.5 K
Answer:
B
Explanation:
B is a complex sentence because it contains more words and phrases and vocabulary than the rest of the sentences.
H2O is the Bronsted-Lowry acid in the forward reaction, donating an H+ to CH3, and CH4 is the Bronsted-Lowry acid in the reverse direction, donating an H+ to OH-.
= 32000 kilometers