The Calorimeter Theory



This is only considerations. It is not facts.
I don't know anything about the climate other than what I know about the physical laws as a civil engineer.
The estimates are very loose.



If the earth is considered as a calorimeter, how much will our energy consumption heat up the atmosphere?

Our energy consumption will heat up the atmosphere slightly more than the global warming - maybe twice the global warming.
For comparison the heat radiation from the sun is about 10,000 times greater.

Ice cools down the global warming while it melts.

It looks like the radiation from the sun is decreasing at the moment.
The temperatures on the earth would actually be higher, if this wasn't the case.
This gives a blurred picture with both heat and cold records.

If everything is taken into account the radiation from the sun towards the earth is the same as the radiation back to space and it has always been so - CO2 or not.



Clouds prevent radiation from returning to space.
In wintertime the temperature is easily 10o C higher during nighttime when cloudy.
Clouds also prevent radiation towards earth.
In summertime the temperature is easily 10o C lower during daytime when cloudy.

Clouds, CO2 and other greenhouse gases prevent low temperatures on the earth, but they also prevent high temperatures.
All in all they don't change the middle temperature on earth.
They act like buffers and equalize the temperatures.
The temperature is always the same day and night, when the atmosphere is saturated with greenhouse gases.

There is a relation between the amount of greenhouse gases and the atmospheric pressure (see facts about planets just below).
The higher pressure, the larger amount of greenhouse gases, the more equalized (not higher) temperatures.

The closer to the sun, the higher basic temperature.
Volcanoes and fossil fuels increase this temperature.

The earth
The temperature on the earth vary between -90o C and 57o C.
The surface pressure is about 101 hPa.
The composition of the atmosphere is about 78 % N and 21 % O2.
The distance to the sun is about 150 million km.

The moon
The temperature on the moon vary between -170o C and 120o C.
There are no atmosphere, no pressure and no composition.
The distance to the sun is about 150 million km.

Venus
The temperature on Venus is constantly 462o C.
The surface pressure is constantly 9.2 MPa (about 90 times the pressure on the earth).
The composition of the atmosphere is about 96 % CO2.
The distance to the sun is about 108 million km.

Mars
The temperature on Mars vary between -143o C and 35o C.
The surface pressure is about 0,6 hPa (0,006 times the earths).
The composition of the atmosphere is about 96 % CO2.
The distance to the sun is about 207 million km.

Jupiter
The inside of Jupiter is uncertain.
Jupiter consists of gas and it might not have a surface.
The temperature depends on the pressure, which depends of the distance from the center.
The temperature is about -110o C at a pressure of 100 hPa (same as the pressure on the earth).
The temperature is about -160o C at a pressure of 10 hPa (one tenth of the earths).
The composition of the atmosphere is about 90 % H2 and 10 % He.
The distance to the sun is about 780 million km.



Ice cools the temperature in a calorimeter.
Ice uses energy to melt and ice lowers the temperature.

There are way more ice on the earth, than our energy consumption is able to melt.
It will take under 1 % of all the ice on the earth to cover up for all fossil fuels both in the past and in the future.
Melting ice is a slow process and the heat has to move to the poles before it can melt any ice.

Making the heat is much quicker than melting ice.

Some of the energy also heats up the ground and the oceans.

Antarctic contains 26,5 million km3 ice.
Arctic and Greenland contains about 2,6 million km3 ice.
The glaciers and mountain tops contain under 1 % of the ice on the earth.



There are different kinds of heat.
Concerning the global warming there are two kinds of heat - heat radiation and kinetic heat.
The heat from the sun is radiation and the heat from fossil fuels is kinetic.

The two kinds of heat have different properties.
Heat radiation can for example pass though areas without kinetic heat without changing.

Heat radiation is a kind of electromagnetic radiation. When the source stops and the radiation leaves, the heat stops.
Kinetic heat is related to kinetic energy. When the energy source stops, the kinetic heat stays in the matter afterwards.

Heat radiation can exit into empty space.
Kinetic heat is related to molecules and it can only exist in an atmosphere.
Kinetic heat can't leave the earth.

Greenhouse gases have influence on the heat radiation.
Greenhouse gases shadow or stop the radiation - both from and to the earth.

Greenhouse gases bring a time aspect into the heat radiation from the sun.
The heat radiation stops when the sun sets and it disappears quite quickly back into space. Greenhouse gases prevent the disappearance of the heat radiation back into space. They make the heat radiation stay in the atmosphere longer time even after the sun has set.
But when the sun is up greenhouse gases also prevent heat radiation towards the earth. They make the old heat radiation stay in the atmosphere longer time and at the same time they prevent new heat radiation towards the earth. So the amounts of heat radiation to and from the earth are the same.
How much heat the greenhouse gases hold back depends on the amount of greenhouse gases.

Ice in a calorimeter is related the kinetic heat. When ice melts it takes out some of the kinetic heat.

Global warming is related to kinetic heat. It stays in the atmosphere even after the heat production has stopped.

The distinction between heat radiation and kinetic heat is blurred.
If a metal solid for example is warmed up, it first exchange kinetic heat with the surroundings. When it is very hot, it starts to glow and exchange heat as radiation.



I don't know if nuclear power is kinetic heat or heat radiation.



Animal production has no influence on the global warming after this theory.



Fossil fuels.

We have used about 40 % of all the oil on the earth so far.
We have used about 20 % of all the coal on the earth so far.
We have used about 35 % of all the gas on the earth so far.
Totally we have used about 28 % of all the fossil fuels on the earth so far measured on energy.

The global warming is about 1.1o C at the moment.



The global sea level has risen about 23 cm due to the global warming.
Half is due to water expansion, when it gets warmer, and the rest is due to melting ice.
The sea level will rise estimated a little over a meter after burning up all the fossil fuels on the earth.



Tipping point

The amount of CO2 in the atmosphere at present time is about 400 ppm.
The amount of CO2 in the atmosphere before the global warming was about 280 ppm.
The amount of CO2 in the atmosphere after burning up all the fossil fuels on earth estimated 800 ppm.

The global temperature at present time is about 15o C.
The global temperature before the global warming was about 14o C.
The global temperature after burning up all the fossil fuels on earth estimated 20o C.

In earlier ages the amount of CO2 and the global temperature were much higher.
The average amount of CO2 in the atmosphere the last 600 million years has been around 2000 ppm with maximum over 6000 ppm.
The average global temperature the last 600 million years has been around 20o C with maximum over 23o C.
No tipping point has occurred so far and burning up all the fossil fuels on earth is still not enough to reach earlier ages temperatures and amounts of CO2.

600 million years.
The earth is about 4.5 ∙ 109 years old.
The oldest DNA from life found is about 3.8 ∙ 109 years old, but there are signs of life before that.
The dinosaurs came about 300 million years ago and they extinct 66 million years ago due to a large meteor impact.
Before 600 million years ago there was much more CO2.

100o C could be a crusual point.
All the water on the earth turning into steam must have a significant influence on the climate.



The earth can be considered as a calorimeter, but it is more complex.
There are other smaller systems (deserts, rainforests, oceans etc) within the system.

If there is ice in the water in a calorimeter, the water is accepted as 0o C.
This is not the case on the earth, where there are open connections between the iced waters on the poles and the warm waters near equator.


The heat and CO2 follow each other and they follow the wind.

Most of our energy production is on the northern hemisphere. It creates global warming despite the radiation from the sun actually is decreasing at the moment. The heat passes the north pole, melts some ice while and cools down a bit.

Our energy production is much smaller on the southern hemisphere and the amount of ice on the south pole is not changing much.


El Nino.
The wind in the Pacific Ocean normally blows warm water towards Australia and Southeast Asia.
Sometimes this changes and the warm water flows back towards South America.
This is called El Nino and it has a significant influence on the global temperature.

North Atlantic Oscillations - NAO.
There is a permanent low pressure in the Northeast Atlantic ocean over Iceland and a permanent high pressure in the Atlantic ocean outside the coast of North Africa.
The strength of these pressures have a significant influence on the weather and temperatures in Europe and Arctic.

All the oceans are connected both north-south and east-west by ocean currents which can be both cold or warm.


Vulcanos and plate tectonics have a significant influence of the global warming too.



Arguments for this theory.

The global warming is proportional with both CO2 and our energy consumption.

The global warming is accumulated. It has increased slowly over the last nearly 200 years.
The behavior of the global warming points more in the direction of a calorimeter than prevention of radiation back to space.

Our energy consumption both heats up the atmosphere and produces CO2.
The CO2 theory neglects the heat from our energy consumption and says that CO2 prevents radiation back into space, so the atmosphere heats up with the same amount of heat, which was neglected in the first place. This doesn't seem likely.



There is a way out of increasing the global temperature with our energy consumption.
The energy from the sun has always caused waves and wind on the earth without increasing the temperature.
The sun even causes the temperature to rise maybe 10o C on a single day and cooling it down again during the night without causing global warming.
If we can use the circuits of the heat radiation from the sun, we can live without global warming.



Estimations.

The heat capacity of the atmosphere :
The mass of the atmosphere : 5.2 ∙ 1018 kg
The specific heat capacity of air : 1010 J / (kg ∙ K)
The heat capacity of the atmosphere : 1010 ∙ 5.2 ∙ 1018 = 5.25 ∙ 1021 J / K

Our energy consumption :
Earth energy consumption 2015 (source : wikipedia) : 168,519 TWh = 6.067 ∙ 1020 J
The heat capacity of the atmosphere (see above) : 5.25 ∙ 1021 J / K
The increase of temperature per year (2015) is 6.067 ∙ 1020 / 5.25 ∙ 1021 = 0.12 K
The temperature will rise 1o C every 8.7 year.



The resources of fossil fuels are limited.

Fossil fuel consumption through time so far (2019) :
Oil consumption so far : 2180000 TWh = 7.85 ∙ 1021 J
Coal consumption so far : 2260000 TWh = 8.13 ∙ 1021 J
Gas consumption so far : 1170000 TWh = 4.20 ∙ 1021 J
Total consumption so far : (0.785 + 0.813 + 0.420) ∙ 1022 = 2.018 ∙ 1022 J

Fossil fuel resources left on the earth (2019) :
Oil resources left : 1646 billions bbl oil = 1.16 ∙ 1022 J
Coal resources left : 1.136 ∙ 1012 ton = 3.41 ∙ 1022 J
Gas resources left : 7000 Tcf = 7.84 ∙ 1021 J
Total resources of fossil fuels left : (1.16 + 3.41 + 0.784) = 5.354 ∙ 1022 J

Total amount of fossil fuels both in the past and in the future :
Oil : (0.785 + 1.16) ∙ 1022 = 1.945 ∙ 1022 J
Coal : (0.813 + 3.41) ∙ 1022 = 4.223 ∙ 1022 J
Gas : (0.42 + 0.784) ∙ 1022 = 1.204 ∙ 1022 J
Total amount of fossil fuels : (1.945 + 4.223 + 1.204) ∙ 1022 = 7.372 ∙ 1022 J

We have used about 40 % of all the oil on the earth so far.
We have used about 20 % of all the coal on the earth so far.
We have used about 35 % of all the gas on the earth so far.
We have used about 28 % of all the fossil fuels on the earth so far.

The global warming is about 1.1 o at the moment.



Total amount of fossil fuels both in the past and in the future : 7.372 ∙ 1022 J
Ice uses 334 kJ to melt 1 kg
Total amount of ice to recover all fossil fuels both in the past and in the future : 7.372 ∙ 1022 / (334 ∙ 103) = 2.2 ∙ 1017 kg = 2.3 ∙ 105 km3
Ice totally on earth at present time : 29 ∙ 106 km3
All the fossil fuels both in the past and in the future will melt about 0.8 % of all the ice on the earth.
Then the temperature will be back to normal, but there are uncertainties by putting it all so simple.