- 1 How Do Carbon Dioxide Absorbs and Emits Infrared radiation?
- 1.1 A Look at the Interacting Molecule of Carbon Dioxide and Re-Emitted As Infrared Radiation
- 1.2 Why Carbon Dioxide Absorbs and Emits Infrared Radiation
- 1.3 Energy Interacting Molecules of Carbon Dioxide and Re Emitted As Infrared Radiation
- 1.4 How the Faster Motion of a Molecule That Eventually Results in IR photons Being Absorbed by a Carbon Monoxide Molecule
- 1.5 How Can We Reduce the Absorption of Carbon Dioxide?
- 1.6 Co2 Molecule – How Does It Relate To Heat Energy Generation?
- 1.7 How the Energy From the photon Causes the Voltage in the Fiber
- 1.8 Molecules of Carbon Dioxide
- 1.9 A Significant Greenhouse Gas is Chlorine and Other greenhouse gases
- 1.10 Have Burning Fossils Watered the Earth’s Climate?
- 1.11 The Problem of Excess Ozone Emissions From Human Activities
- 1.12 Why Greenhouse Gas Emissions Is So Important – And What Can Be Done To Overcome The Problem?
- 1.13 Information on the Relationship Between CO2 and Climate Change
- 1.14 What Is Nitrogen?
- 1.15 How Absorption and Reception of Infrared Energy Make Co2 an Effective Greenhouse Gas
How Do Carbon Dioxide Absorbs and Emits Infrared radiation?
There are a lot of theories about infrared radiation and carbon dioxide absorption but no one is certain as to which one of them is correct.
The absorption of carbon dioxide by the infrared light comes from the absorption of infrared photons.
The absorption of carbon dioxide is not seen, nor is it believed to be absorbed by carbon dioxide.
However there is evidence that suggests carbon dioxide absorption does happen.
It has been measured in a number of different situations and has been found to be true in some cases but false in others.
The truth may lie somewhere in between. The main theory that explains absorption is that the carbon dioxide reacts with the water molecules in the air to create a compound called oxalate.
This compound in turn combines with the protein fluorine in the hemoglobin so that the red blood cells can get the oxygen they need which they do when we are breathing.
However, the amount of carbon dioxide that combines with the protein will depend upon the concentration of carbon dioxide in the air.
When there is a large concentration of carbon dioxide then absorption is going to take place.
If the concentration is low then there will not be any absorption.
If the concentration is high then there will be.
So measuring the concentration is not always the best way to measure absorption. However, it still is an important part of understanding carbon dioxide absorption and understanding what the effect of increasing the concentration in the atmosphere will have on us.
A Look at the Interacting Molecule of Carbon Dioxide and Re-Emitted As Infrared Radiation
Now, the next question in mind would be how carbon dioxide can be an energy interacting molecule?
This is because carbon dioxide reacts to photons coming from an atom or molecule which absorbs energy.
The more carbon dioxide present, the more it absorbs energy and the more infrared radiation are emitted as a result.
Now, there are many other known interacting molecules with different atomic structures.
There is another molecule which is known as fluorine.
This one is found at high temperatures and very reactive to light. If there is less carbon dioxide in the Earth’s atmosphere then fluorine will interact with it and will emit a lot of infrared radiation as a result.
Therefore, it is believed that every time there is less carbon dioxide in the Earth’s atmosphere there is more fluorine present and more infrared radiation emitted as a result.
Now that you know that carbon dioxide is a very important greenhouse gas which leads to global warming and climate change, you might be concerned as to how you can reduce your carbon dioxide emissions.
You can do this by changing your lifestyle and buying green products.
In addition, you can also use energy efficient appliances and cars.
However, even if you use green products and make every effort to be environmentally friendly, you cannot stop carbon dioxide emission completely.
So, instead of looking for ways on how you can reduce your carbon dioxide emissions go ahead and look for ways on how you can better protect the Earth from global warming and its effects.
Why Carbon Dioxide Absorbs and Emits Infrared Radiation
The reason why carbon dioxide absorbs infrared radiation is because the carbon dioxide in our air combines with the water vapor that is present to become denser and as a result infrared radiation cannot be absorbed.
When carbon dioxide absorbs infrared radiation, it creates a warm blanket around the body that acts similar to that of a sauna.
It has been suggested that taking a brisk walk after you have your swim can help to increase the absorption of the infrared radiation by as much as forty per cent.
However, there are many factors involved when it comes to the absorption rates and it is difficult to give an exact figure.
There are various other reasons why carbon dioxide does not reflect infrared radiation.
Some of the more common ones are that when swimming, it is possible for the carbon dioxide in the water to mix with the oxygen that is in the swimming pool causing the water to become cloudy and this can reduce the absorption rate significantly.
Also, it is possible that the swimming pool is surrounded by a glass window that has some sort of barrier preventing most of the heat from escaping.
If this is the case then the amount of time that you spend in the pool will also be decreased as the amount of heat that is able to escape will be reduced.
Energy Interacting Molecules of Carbon Dioxide and Re Emitted As Infrared Radiation
We are all aware of the fact that carbon dioxide is one of the three most common elements in our atmosphere. The other two are water and oxygen.
These are present in the earth as they are being continuously produced by the nature’s inexhaustible process, while carbon dioxide is being present since millions of years from the beginning of the earth’s existence.
So, if carbon dioxide is not supposed to be there with us, then where did it disappear without our knowing?
Carbon dioxide is one of the twenty-four natural compounds which makes up the majority of the earth’s atmosphere.
This is being continuously produced by the earth’s metabolism and, through the food chain, by plants, animals, bacteria and even insects.
But, at some point, some of these molecules may become colliding with one another causing an excess of carbon dioxide to be produced and thus causing the earth to warm up and create the greenhouse effect which is otherwise known as the greenhouse effect.
When this happens, the earth tends to absorb more heat than it used to before and the result is that, on top of the already warm temperatures, a rise in ground temperature also takes place, sometimes accompanied by rainfall, and this may set the stage for the creation of clouds.
The greenhouse effect, or climate change, has become one of the biggest problems that the world is facing.
One of the major causes for this is the increased use of fossil fuels such as coal, oil and gas, which are used in large quantities in the human endeavor to satisfy the energy needs of the global community.
Because of this, there is a constant rise in the concentration of carbon dioxide in the atmosphere.
There is another equally important cause for climate change and that is the burning of fossil fuels like oil, coal and gas for producing heat.
Thus, even if the carbon dioxide is not immediately removed from the atmosphere, gradual removal will occur as the extra amounts of these gases are burned off. This will in time have a negative effect on the earth’s climate and consequently on its climate in general.
How the Faster Motion of a Molecule That Eventually Results in IR photons Being Absorbed by a Carbon Monoxide Molecule
In the search for an answer to the question how the faster motion of a molecule that ultimately results in IR photons being absorbed by a carbon monoxide molecule, many scientists have come up with some interesting theories and have made some surprising observations.
One theory is that the faster motion of molecules may result in the absorption of more infrared photons than slow molecules.
How Can We Reduce the Absorption of Carbon Dioxide?
The absorption and emission of carbon dioxide is a natural process that is occurring in the Earth’s atmosphere.
When carbon dioxide is breathed in by human, it combines with the oxygen present in the air and gives off heat, known as the greenhouse effect.
When this process occurs, the Earth’s average surface temperature raises above freezing. If the average temperature continues to rise for many years, scientists predict that the ice will start to build up on the poles and that the planet will experience further climate change.
Because carbon dioxide is believed to be a major cause of global warming, the key to limiting this long-term cycle is looking into ways of reducing the amount of carbon dioxide in the atmosphere.
The absorption of carbon dioxide can take place in a number of different ways.
One of the more familiar processes that is thought to allow carbon dioxide absorption is melting ice.
This is a very natural process, however, it can also happen when the Earth is under high pressure or when clouds are blocking the sun’s rays.
While it may seem like a very complicated process to understand, there are a number of technological advancements currently being tested to find better ways of removing carbon dioxide from the air.
For instance, some research is currently being done to develop new scrubbers that can remove carbon dioxide from sewage sludge.
Another way that we can reduce the absorption of carbon dioxide is through venting.
This refers to taking any excess gases outside of a building, such as a store, an industrial plant, or even a home.
A lot of this excess gas is created by businesses when they ventilate. It is estimated that around 20% of all the carbon dioxide in our atmosphere comes from venting.
As technology advances, we can expect this number to drop significantly.
Co2 Molecule – How Does It Relate To Heat Energy Generation?
So you have driven the car long enough and now come to a complete stop. You see a cop car heading your way at high speeds, and you now get to realize that you do not have the right for stopping this car. The cop car stops the car on the side right away. How does this work?
If you put a molecule of pure carbon dioxide together with hydrogen and oxygen atoms, you would soon find that these two would be attracted to each other due to their orbital radii around the nucleus of the carbon dioxide molecule.
The presence of oxygen would push the carbon dioxide molecule outwards thereby making it emit photons in the infrared spectrum.
This absorption of photons by the carbon dioxide molecule would result in emission of infrared light which is detected by infrared cameras or infrared thermometers.
What is so interesting about this phenomenon?
How could the carbon dioxide emission from a working engine possibly be harnessed by man?
If the Carbon Dioxide emission is harnessed, what are its uses?
Well you would find that the carbon dioxide emission from an engine plays a very important role in giving an uphill push towards the speedometer.
By placing the fuel injectors near the engine’s combustion chambers, you can increase the speed at which the fuel burns. Now you will surely understand the importance of understanding the basic chemistry of the universe we live in.
How the Energy From the photon Causes the Voltage in the Fiber
How the energy from the photon changes is described by the Heisenberg constant, H=0.
The photons have a very high frequency, and as they travel through the medium, they emit tiny amounts of energy as they move.
This energy is measured by the Coefficient of Conversion, or CoC.
It is well known that as the frequency of the photons increases, so does the power of the electric field. The higher the Coefficient of Conversion, the stronger the electric field.
The energy from the photon that we can see and hear is not the only energy that makes up what we call light.
Radio waves, gamma rays, x-rays, and infrared are also absorbed and emitted radiation.
In fact, almost everything has an invisible radiation field. The energy from the photon causes the highest amounts of radiation, and therefore the Coefficient of Conversion is most sensitive to these wavelengths.
When we measure the energy levels, we use two different ways to calculate the energy.
One method is based on how many photons are emitted per second.
The other method measures the wavelength of the photons, and then calculates the amount of energy that is emitted as the product of the wavelength and the energy levels. The result is the amount of energy in cells that can be measured with a spectroscope.
Molecules of Carbon Dioxide
Carbon dioxide molecules of varying density are absorbed by the infrared radiation in the atmosphere.
The absorption is not complete but the infrared energy that is emitted is of very low energy, very much like the light that travels in the ultraviolet rays.
These molecules absorb carbon dioxide and emit infrared energy. Molecules of carbon dioxide that are very similar to the types of molecules that absorb infrared radiation are HHO molecules.
There is no doubt that HHO molecules have a higher affinity for carbon dioxide than ordinary carbon dioxide molecules do.
A lot of research has been done on this subject and a great deal of progress has been made.
It has been proved theoretically that the absorption and emission of infrared radiation from these molecules are actually taking place.
For this to be so, the molecule must have a high electrical charge and it must be polarised. If the polarisation state of the molecule is changed then the absorption and emission of infrared radiation also changes.
If the change in the hydrogen bonding percentage is less than twenty per cent then the carbon dioxide will not absorb any of the infrared energy.
There are many experiments that have been carried out to prove this fact.
All the results show that the presence of HHO molecules increases the absorption and emission of infrared radiation substantially.
Many scientists believe that the emergence of this new kind of molecule is the main reason for the recent global warming scare. Perhaps we need to start concentrating more on the creation of pure HHO molecules to save this planet that we call home.
A Significant Greenhouse Gas is Chlorine and Other greenhouse gases
The greenhouse gases, which are the most important cause for global warming are water vapor, methane, nitrous oxides, and ozone.
Each one of these has a much smaller effect on global warming compared to carbon dioxide.
Although all four are released into the atmosphere, they make up a lesser amount of the gases that are scattered around the globe.
Carbon dioxide is the most important greenhouse gas, but only a small amount of the gases are actually trapped within the Earth’s atmosphere.
Other less effective greenhouse gases include carbon monoxide, chlorofluorocarbons, and nitrous oxide. Each of them has a varying concentration in the atmosphere.
The greenhouse gases that are the most potent have a high concentration in the atmosphere, and thus they are the main cause for global warming.
Water vapor has a high concentration in the atmosphere as well, but its concentration is a bit lower than that of carbon dioxide.
The greenhouse gas methane is a very potent greenhouse gas, as it combines with other elements to form thole gases, which trap heat in the atmosphere.
When there is enough of this gas in the air, it will absorb heat from the sun and send the air rushing through the greenhouse, absorbing heat and slowing down the process of warming up the planet.
A decrease in the concentration of water vapor in the atmosphere will result in an increase in the concentration of methane, which is a more potent greenhouse gas.
A decrease in the concentration of chlorine in the atmosphere will result in an increase in the concentration of hydrogen sulfide.
The presence of sulfur in the atmosphere is what makes HHO gas so potent.
This gas is made when you combine oxygen and hydrogen to produce an unlimited amount of energy.
If this method were used to replace fossil fuels, then we could expect a significant reduction in greenhouse gas emissions.
Have Burning Fossils Watered the Earth’s Climate?
Over the last several decades scientists have concluded that burning fossil fuels have begun to warm the climate of the Earth at a troubling rate.
In fact, recent studies by the National Academy of Sciences show that recent increases in global temperatures are unprecedented in the past history of the planet.
While most people have begun to accept that man has contributed to the rising temperatures of the earth’s climate, very few people seem to know what to do about it.
The burning of fossil fuels have begun to warm the Earths climate at a troubling rate.
Man is the cause of all the pollutants which are the major cause of global warming.
These pollutants have also resulted in changing the Earths climate system, which in turn has begun to warm the Earths climate at a troubling rate.
Although man has not altered the composition of the atmosphere, they have been able to alter the way it functions.
This alteration has created problems for plant and animal life.
The burning of fossil fuels have begun to warm the Earths climate at a troubling rate. It is extremely important to utilize alternative sources of energy.
We have discovered that we can produce clean, plentiful energy from wind, water and sun.
Utilizing these resources will not only save our environment, but it will also save our lives. If we continue to utilize the burning of fossil fuels as our source of energy, we will soon discover that they will not be around much longer.
The Problem of Excess Ozone Emissions From Human Activities
Excess emissions of carbon dioxide and other greenhouse gases from human activities are a major cause for concern.
Carbon dioxide is a naturally occurring gas that is essential for life but has harmful effects upon the environment if it is released into the atmosphere in high concentration.
This is true both in direct and indirect ways.
Direct emissions are those which are produced directly by the burning of fossil fuels like petrol, natural gas, coal and so on.
Indirect emissions occur through alteration of the earths atmospheric condition through the use of chemical means such as through carbon dioxide released into the atmosphere or through the exhaust of vehicles running on roads.
There are many other greenhouse gases that are released from human activity. methane and chlorofluorocarbons are two such gases, which are believed to be the cause of ‘the greenhouse effect’.
These two substances are considered to be the result of the ‘greater efficiencies of chemical reaction’ i.e. byproducts of chemical reactions are formed.
Other substances believed to be the result of these reactions include nitrous oxides, carbon dioxide and water vapor.
The problem of greenhouse gases is not evenly spread around the world.
Although Africa has relatively high levels of emissions, Europe and Asia-Pacific have low ones.
Asia-Pacific countries, in particular, have been identified as major emitters of carbon dioxide, methane and chlorofluorocarbons.
Developed economies have been identified as the main cause of carbon dioxide emissions from land, ocean and atmosphere.
Thus, a joint effort by governments in Asia-Pacific and other developing countries can only bring a solution to the problem of greenhouse gases by reducing greenhouse gas emissions.
Why Greenhouse Gas Emissions Is So Important – And What Can Be Done To Overcome The Problem?
Without greenhouse gases our planet would be a frozen ball of lava that would have no liquid surface. But we have greenhouse gases, so we need to use them.
In fact, if we do not use them today then sometime in the future they will.
For most of us it is a very important issue as the average earth year is less than one hundred years.
We have already committed ourselves to exhaust all natural fossil fuels which are currently being used to extract oil and gas, and this would only take us to around the twenty-first century if we continue to use these resources.
How would we solve the problem of how to live without greenhouse gases by having “green house” technology?
I am sure you have heard of carbon sequestration by using water and charcoal to create a kind of vacuum.
Another solution would be to build a “geothermal power plant” where the sun shines and heat is trapped.
Or maybe we could simply design better buildings so that the warm air from the sun does not escape and warm the interior of the house.
This would not solve the problem but it might make a difference.
Some think that if we go big like going solar or building huge facilities that we can save the planet. Maybe we could, but what about all the other problems with global warming, like the ice caps melting and ocean pollution.
It seems to me, for our long term survival, to not go down that path. I believe we should try to find other means to allow the growth of greenhouse gases without depleting the earth’s supply.
Information on the Relationship Between CO2 and Climate Change
Theory of everything states that the human body is composed of molecules. These molecules are made up of amino acids, lipids, proteins and small inert gases called free radicals.
One of the most perplexing questions in the chemistry of the human body is how carbon dioxide is able to become part of some organic compounds and become part of a different kind of molecule.
Theoretical chemists believe that it is due to the interaction between co2 molecules and the infrared photon, which make these co2 molecules highly reactive to the infrared energy.
The existence of co2 molecules was demonstrated experimentally in the 1970s with the use of gas sensors.
These sensors could detect the presence of co2 molecules in the greenhouse gases. There are predictions that further studies will confirm that co2 is indeed one of the major drivers behind global warming.
Global warming is believed to be one of the greatest challenges humanity has ever faced. The sooner we can solve this problem, the better for future generations.
If you are concerned about global warming and its effects on future generations, the study of the role of CO2 molecules in affecting climate change should interest you.
What Is Nitrogen?
Infrared is a type of radiation that is actually invisible to the human eye, but when it is absorbed it produces heat. We can detect this heat by looking at infrared spectrums, which are emitted when the atmosphere is warmed by the sun or by lightning.
It has been calculated that every square meter area of the earth contains at least five billionths of a molecule of nitrogen, which is roughly the same amount as the gas nitrogen gas found in stars and on the earth’s moon.
This means that nitrogen is very common, and that it accounts for about eighty percent of the earth’s atmosphere.
Since nitrogen is the dominant element in the atmosphere, scientists have speculated that a planet might be capable of supporting life.
Nitrogen is one of the four gases emitted during combustion, along with oxygen and carbon dioxide. It has many uses and is vital to plant growth and development.
Nitrogen is used for curing agricultural problems by encouraging the growth of more plants and slowing down plant photosynthesis so that more nitrogen is present in the soil for food production.
Nitrogen is also used in the process of fossil fuel extraction, since it forms part of the composition of fossil fuels.
Fossil fuel is also said to contain a large amount of nitrogen and scientists believe that nitrogen is responsible for the warming of the earth caused by the earth’s core.
Although nitrogen has many important uses it is difficult to extract from certain types of foods, and this means that most of the nitrogen in the diet comes from vegetables and fruits.
Greenhouse gases like carbon dioxide do play an important role in climate change, greenhouse gas emissions are the main cause of global warming.
In fact the earth absorbs carbon dioxide from the air, and this process happens constantly.
However, it is the absorption of nitrogen from the air that leads to the greenhouse effect.
How Absorption and Reception of Infrared Energy Make Co2 an Effective Greenhouse Gas
A new study by NASA and the NASA Center for Infrared Earth Science has revealed that absorption of carbon dioxide and its subsequent release makes a large portion of greenhouse gases in the atmosphere.
Carbon dioxide is said to be the largest contributor to global warming.
The absorption and the emission process is said to occur when layers of soil carbon dioxide become hydrated through a process called capillary adsorption.
When this happens, this process allows carbon dioxide to absorb infrared energy from the surrounding environment, which in turn makes carbon dioxide absorb energy and move out into the atmosphere.
The study says that this process is also used in the production of vitamin D, one of the most important natural antioxidants to prevent health problems such as obesity, heart disease and skin ageing.
The ability to absorb and to emit infrared energy makes CO2 a very effective greenhouse gas.
It is also capable of absorbing other greenhouse gases, such as methane, which has been widely recognised as a major cause of global warming.
It is estimated that methane may already be in the atmosphere at such high levels that it is currently contributing to climate change.
The ability to absorb and to emit infrared energy makes CO2 extremely powerful greenhouse gas, making it an essential part of our efforts to reduce greenhouse gases and climate change.
There are other greenhouse gases, which are said to be curbing the effects of global warming. methane is believed to be the number 1 most important greenhouse gas and is released as a result of the digestion of plants.
This means that planting of trees and changing land use can both reduce methane emissions.
One of the ways in which you can reduce greenhouse gas emissions is by planting more trees. In addition to being nature’s green energy, plants are capable of storing up carbon dioxide for many years and in doing so they offer a long-term solution to storing up carbon dioxide.