Sodium hydroxide granules absorb carbon dioxide.
To test for carbon dioxide is easy. All you need is a beaker filled with water but not full, about 1/4 full and bits of limestone. Insert the limestone in the water and blow into it. The carbon dioxide that you blew out from your mouth should react with the limewater. The limewater should turn into a milky, cloudy color.
C6H12O6 + 6O2 --> 6CO2 + 6H2O Tip: It's easy to remember how to balance it... 666.. Oxygen + Glucose = Carbon Dioxide + Water Oxygen and Glucose = Need Carbon Dioxide = Waste Products (ATP = Universal Energy Currency)
Plants living in water have easy access to nutrients and do not need to invest energy in developing strong support structures. Water also helps to regulate temperature and provides buoyancy, reducing the risk of water loss and overheating. Additionally, aquatic plants can use dissolved carbon dioxide from the water for photosynthesis.
There are a number of equations that could answer this question. Here are some: glucose + oxygen => carbon dioxide + water hydrocarbon + oxygen => carbon dioxide + water Note: Hydrocarbons are (in general) petroleum vehicle fuels (though a number of other products are hydrocarbons). As the question was categorized in global warming, and because hydrocarbon burning is a major contributor to greenhouse gases, that equation may be the "best" one to answer this question.
Sodium hydroxide granules absorb carbon dioxide.
To test for carbon dioxide is easy. All you need is a beaker filled with water but not full, about 1/4 full and bits of limestone. Insert the limestone in the water and blow into it. The carbon dioxide that you blew out from your mouth should react with the limewater. The limewater should turn into a milky, cloudy color.
C6H12O6 + 6O2 --> 6CO2 + 6H2O Tip: It's easy to remember how to balance it... 666.. Oxygen + Glucose = Carbon Dioxide + Water Oxygen and Glucose = Need Carbon Dioxide = Waste Products (ATP = Universal Energy Currency)
Plants living in water have easy access to nutrients and do not need to invest energy in developing strong support structures. Water also helps to regulate temperature and provides buoyancy, reducing the risk of water loss and overheating. Additionally, aquatic plants can use dissolved carbon dioxide from the water for photosynthesis.
There are a number of equations that could answer this question. Here are some: glucose + oxygen => carbon dioxide + water hydrocarbon + oxygen => carbon dioxide + water Note: Hydrocarbons are (in general) petroleum vehicle fuels (though a number of other products are hydrocarbons). As the question was categorized in global warming, and because hydrocarbon burning is a major contributor to greenhouse gases, that equation may be the "best" one to answer this question.
Bromothymal blue is blue because it is easy to make out in an acid and water with carbon dioxide.
6CO2 + 6H2O ------> C6H12O6 + 6O2CO2 = carbon dioxideH2O = waterC6H12O6 = glucoseO2 = oxygenLight energy is required
The physical property of carbon dioxide that allows gas to be collected is its higher density compared to air. This causes carbon dioxide to sink and accumulate in a container when released, allowing for easy collection.
The solubility of these non-polar gases depends mostly on London dispersion forces between the water molecules and the gas molecules. Since carbon dioxide is larger (has a higher molecular weight) than methane, it is more polarizable and it therefore has stronger intermolecular forces with water. The strength of intermolecular forces (forces between molecules) is directly related to the solubility of any substance in water.
The three main factors that affect the rate of photosynthesis are light intensity, carbon dioxide concentration, and temperature. These factors influence the amount of energy available for photosynthesis and the efficiency of the chemical reactions involved in converting carbon dioxide and water into glucose and oxygen.
Adding is as easy as breathing oxygen and exhaling carbon dioxide
Since water and carbon dioxide are both compounds which contain oxygen, it is possible to obtain oxygen from either, but you get a different residue depending upon which compound is the source of the oxygen. Take the oxygen out of water and you are left with hydrogen gas; take the oxygen out of carbon dioxide and you are left with carbon, which is a black solid. It is easy to spot the difference between hydrogen and carbon.