Well, it depends on the water content of the wood. But assuming the wood contains about 10% water (within the normal range of air-dried wood), a ton of wood, if burned, would produce approximately 1.5 tons Carbon Dioxide, or about 0.4 ton "carbon equivalent", which just means the weight of the carbon that is contained in the carbon dioxide.
Measuring the energy content of woody biomass is somewhat inexact due to the amount of moisture contained in the biomass. A 20% moisture content would contain approx. 6,400 Btu/lb. Bone dry biomass (0% moisture content) has a Btu value of 9,400 Btu/lb. Moisture content greater than 20% reduces the Btu value considerably. If your biomass has the equivalent of 7000 Btu (somewhere between "bone dry" and 20% moisture content), one pound of that material with a 100% conversion rate would produce just over 2kwh of electricity. 100% conversion is unlikely so assume a 50% conversion rate (which is excellent) and the result would be 1 pound of relatively dry biomass would produce 1kwh of electricity. The typical American home consumes about 1000kwh/month. So, powering a typical American home with biomass for one would require 1000lbs. of wood chips per month. The current price of woody biomass varies but $30/ton is a safe estimate. Even if the conversion factor were only 25%, one ton of woody biomass could power your home for a month for $30. How much is your electric bill from the power company? Of course there needs to be a device that converts the woody biomass to electricity.
CO2
When wood and fossil fuels are burned, they both undergo a combustion reaction that converts the carbon in the material into carbon dioxide (CO2) and releases energy. This is why burning wood and burning fossil fuels produce the same substance, CO2.
The burning of a wooden stick is a chemical process.
The amount of CO2 produced by scrapyards can vary based on factors such as the size of the operation, the types of machinery used, and the transportation of materials. Generally, scrapyards emit CO2 through activities like burning fuels for equipment, transportation of scrap metal, and processing of materials. Implementing sustainable practices like energy-efficient machinery and recycling can help reduce CO2 emissions.
On average, burning 1 gigajoule (GJ) of natural gas produces approximately 55-60 metric tons of carbon dioxide (CO2) emissions.
Burning one liter of furnace oil produces approximately 2.6 kg of CO2 emissions.
Burning 1 kg of LPG produces approximately 2.98 kg of CO2.
The amount of carbon dioxide (CO2) produced from burning coal varies depending on the type of coal and the combustion efficiency. On average, burning one ton (1000 kg) of coal produces around 2.86 tons of CO2. Therefore, for 2231 kg of coal, the approximate CO2 emissions would be around 6.38 tons.
Most of the CO2 produced from burning fossil fuels ends up in the Earth's atmosphere. This CO2 contributes to the greenhouse effect, trapping heat and leading to global warming and climate change.
To calculate the grams of CO2 produced by burning 22 grams of C3H8, first determine the moles of C3H8 using its molar mass, then use the balanced chemical equation for the combustion of C3H8 to find the moles of CO2 produced, and finally convert moles of CO2 to grams using the molar mass of CO2.
co2
CO2
The heat produced by burning 1 mol of carbon to form CO2 is 393.5 kJ. To produce 510 kJ of heat, we utilize the ratio of heat produced to calculate the moles of CO2 produced as (510 kJ / 393.5 kJ) mol CO2. The molar mass of CO2 is 44.01 g/mol, so the mass of CO2 produced is (510/393.5) * 44.01 g.
Carbon oxydation C + O2-------CO2
Burning one 20lb tire releases 60lbs of CO2.
When wood and fossil fuels are burned, they both undergo a combustion reaction that converts the carbon in the material into carbon dioxide (CO2) and releases energy. This is why burning wood and burning fossil fuels produce the same substance, CO2.
To calculate the amount of CO2 produced when burning 34.3 grams of C3H8 (propane), you need to balance the chemical equation for the combustion of C3H8. Since each mole of C3H8 produces 3 moles of CO2, you first convert 34.3 grams of C3H8 to moles, calculate the moles of CO2 produced, and then convert that to grams of CO2.