Look at the averages on that chart. Eyeballing it, the average should be around 70 kJ/cm2, currently it’s about 85.
So it’s about 20 percent more energy.
It doesn’t translate directly to temperatures as the values represent how much energy is in a column of water that is 1cm2 at the top, and that column extends down until the water temperature drops below 26 degrees Celsius.
So it could be that the top of the column of warm water is mostly the same temperature as before but extends deeper, as opposed to the top of the column being a lot hotter than usual.
When the column is shorter, a hurricane will mix it with cooler water lower down via wave action, reducing the amount of energy available after it passes by. This year the column of water is deeper than usual, which allows two hurricanes to develop over the same patch of ocean in quick succession.
k = thousand
J =joules
/ = per
cm² = square centimeter
How many degrees are off from the avg tho? Just something to compare it to.
Look at the averages on that chart. Eyeballing it, the average should be around 70 kJ/cm2, currently it’s about 85.
So it’s about 20 percent more energy.
It doesn’t translate directly to temperatures as the values represent how much energy is in a column of water that is 1cm2 at the top, and that column extends down until the water temperature drops below 26 degrees Celsius.
So it could be that the top of the column of warm water is mostly the same temperature as before but extends deeper, as opposed to the top of the column being a lot hotter than usual.
When the column is shorter, a hurricane will mix it with cooler water lower down via wave action, reducing the amount of energy available after it passes by. This year the column of water is deeper than usual, which allows two hurricanes to develop over the same patch of ocean in quick succession.
Thanks for the explanation 👌