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Originally posted by TheRedneck
I don't.
I use the concentration of anthropogenic carbon dioxide in the atmosphere (100 ppmv or 0.01%) to find the total amount of energy that it can account for, based on solar irradiance.
I then use that amount of heat that anthropogenic carbon dioxide can account for, under the worst possible conditions, to determine how much it will heat the troposphere and oceans. That's why I use the specific heat capacity of the air instead of the specific heat capacity of carbon dioxide. It is the entire troposphere which is heated, not just the carbon dioxide.
Originally posted by DjSharperimage
Originally posted by neo5842
This is what we need, though in my simple understanding of the mathematics here, i would like to see, how sunspots would change things when added to the equation, though i understand its not possible to see with any degree of accuracy because of how random they can be from year to year, though i do understand the 11, 80 (and so on) year cycle, but still not predictable. As far as i am aware they contribute the largest amount of energy attributed to the heating and cooling of the planet, and for that reason it can take up to 800 years for the CO2 to follow with its increase. Leading to many to conclude that the earth is in a state of cooling rather than warming as a result of the sun's relative inactivity for the past 9 years or so. Please correct me if i am wrong. However like i said i would like to see how things look after sun spots are taken into consideration.
IT IS NOT CARBON DIOXIDE (CO2)
IT IS CARBON MONOXIDE (CO) !!!!!!
will you people please!!!!! learn your table of elements!!@!!!!!
Originally posted by TheRedneck
All heat energy reaching the earth is from the sun....
Originally posted by TheRedneck
True; I did not include geothermal radiation. The reason I did not is that it is minimal compared to the energy coming from the sun...
Compared to geothermal heating, industrial heating is even more insignificant. Check earlier in the thread for an examination of airplane jet engines contribution...
Compared with industrial heating, initial temperatures of the carbon dioxide are even more insignificant...
What carbon dioxide properties are you talking about that affect weather patterns? The only property I know of is that carbon dioxide is (supposedly) responsible for more of the observed temperature variations than is possible at present levels.
TheRedneck
Isn't this sentiment a deviation from where you talk about how wind farms are going to have impacts on weather patterns?
Apply a VERY ARTIFICAL correction for decline!!; yrloc=[1400,findgen(19)*5.+1904] valadj=[0.,0.,0.,0.,0.,-0.1,-0.25,-0.3,0.,- 0.1,0.3,0.8,1.2,1.7,2.5,2.6,2.6,2.6,2.6,2.6]*0.75 ; fudge factor if n_elements(yrloc) ne n_elements(valadj) then message,’Oooops!’
So what is your objective here?
To prove that industrialization has no significant impact on the greenhouse effect?
Btw, everything is significant (important to calculations), using the ocean in your heatsink made CO2 insignificant (quantity wise).
I think what you calculated is that in 100 years, the sun cannot increase the overall temperature of all the water of the ocean by more than 0.01K
No, not really. Assume for a moment that you poured a gallon of alcohol into the ocean. Does that change its ability to hold heat? Yes. Will it make a difference in any oceanic calculations? No. That gallon of alcohol is insignificant compared to the mass of the ocean.
Originally posted by TheRedneck
reply to post by Byrd
I also believe that you are modeling an atmosphere with even distribution of CO2 throughout it. This would not be correct, since it and a number of other gases (methane, notably) are actually heavier than oxygen and nitrogen and water vapor. It's not evenly distributed vertically just as it's not evenly distributed horizontally.
Other than this being similar to the concern you had over distribution patterns, I fail to understand what you are saying. Of course any distribution is going to be in three dimensions, but CO2 will remain closer to the ground rather than aloft due to its density. Short of detecting the exact carbon dioxide level for every strata (which then begs the question of how thick to make each strata; 1 mm, 1 m, 1 km?) and totaling all those together (integration will not work without a mathematical curve to analyze, and atmospheric layers tend to be more chaotic than mathematical), I fail to see what you are suggesting. If that is your suggestion, then I respectfully submit that the average is exactly that: an average which already takes into account any local deviations.
Taking the night side out of your calculations also skews it. We have coal based electrical plants that run 24 hours a day (same with factories, cars, and many other things. Cows on factory farms don't shut off for the night. Forests and the ocean absorb less CO2 when it's cold or when it's night.
In more technical terms, you are discussing noise, rather than trends.
Oh, and I did complete higher mathematics. 4.0 GPA