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Combustion efficiency measures how well a device consumes fuel, with 100% being ideal but impossible. Parameters include fuel composition, oxygen levels, and gas leaving the device. Efficient devices are cheaper, less wasteful, and less harmful. Monitoring can increase efficiency, saving money and reducing pollution.
Combustion efficiency is a measure of how efficiently a device consumes fuel. Ideally, it would be 100% metered, meaning the fuel has been completely used up. In practice, this level of efficiency is impossible to achieve, but it is possible to get close. The lower the combustion efficiency, the less efficient the device is, making it expensive to operate, wasteful of fuel and harmful to the environment.
When measuring combustion efficiency, several parameters are taken into consideration. One is the composition of the fuel, for the purpose of determining how much potential energy is present. Another is the amount of oxygen entering the device, with higher oxygen levels tending to promote more complete combustion. The temperature and composition of the gases leaving the device is also important; some types of flue gas mean that combustion is not complete, and high temperatures mean that heat is wasted to be discharged rather than used.
One of the classic examples of combustion inefficiency is the wood-burning fireplace, which often has an efficiency of less than 10%. This means that the fireplace does not fully exploit the energy of the wood, generating many by-products of incomplete combustion such as soot and harmful gases, and dispersing heat in the flue instead of heating a room. Conversely, specialized types of gas stoves can have efficiency rates of over 90% when operating properly.
Combustion efficiency is a major concern for a variety of reasons. For people who pay to power devices that burn fuel for energy or heat, the more efficiently a device uses fuel, the less it costs to operate, which is good. For environmentally concerned people, more efficient burning is beneficial because it reduces pollution; this also reduces equipment wear caused by the accumulation of noxious particulates and fumes.
Ideally, combustion efficiency would reach a stoichiometric stage, a perfectly balanced reaction that consumes 100% of the fuel. This would require highly controlled conditions that are simply not available in the real world. However, it is possible to monitor a device to determine its efficiency during different periods of operation, in order to make adjustments that can increase its efficiency. This monitoring can be critical on an industrial level, when wasted fuel can get quite expensive, but people can also benefit from monitoring combustion efficiency in their own homes, as they can save substantially on fuel costs by simply making sure the devices are efficient.
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