Intelligent heat accumulating type oxidation device for reducing carbon emission through waste heat recovery
A waste heat recovery and oxidation device technology, applied in incinerators, combustion types, lighting and heating equipment, etc., can solve the problems of low utilization rate of equipment, low utilization rate of waste heat, and poor environmental protection, so as to improve the utilization rate of waste heat and improve efficiency Effect
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Embodiment 1
[0043] When the device is in use, two different directions of air intake-outlet are operated as a group. In the first treatment, valve one 111, valve seven 371, valve eight 381, and valve three 131 are all opened. The other valves are in the closed state, and the normal temperature exhaust gas enters the first chamber 801 through the first air duct 11, and then passes through the ventilation hole 601 in the first ceramic heat storage bed 5 with a higher temperature to realize preheating, and then enters the second chamber 801. The chamber 802 enters the combustion chamber 36 from the first guide pipe 37. At this time, an open flame will be ejected from the combustion nozzle 41. After the exhaust gas is burned, the temperature of the exhaust gas after treatment is relatively high, and the high-temperature gas passes through the second The draft pipe 38 enters the fourth chamber 902, and enters the third chamber 901 through the ventilation hole 601 on the second ceramic heat stor...
Embodiment 2
[0047] During the use of Embodiment 1, the ventilation holes 601 of the first ceramic regenerator bed 5 or the second ceramic regenerator bed 6 can be regularly back-purged, which can be divided into two situations, namely, the first ceramic regenerator The temperature of the heat bed 5 or the second ceramic regenerator bed 6 itself does not exceed or has exceeded the maximum tolerance value, and in this embodiment, the temperature does not exceed the maximum tolerance value.
[0048] Specifically, taking the first treatment in the first embodiment above as an example, when the exhaust gas blows to the second chamber 802 through the first ceramic heat storage bed 5, the first cylinder 25 and the second cylinder 26 shrink downward at the same time, The hydraulic cylinder 21 shrinks and drives the push plate 22 to move, and then pumps the preheated gas into the inner cavity of the outer frame body 20, and then reversely activates the second cylinder 26, so that the second cylinde...
Embodiment 3
[0050] During the use of Embodiment 1, the ventilation holes 601 of the first ceramic regenerator bed 5 or the second ceramic regenerator bed 6 can be regularly back-purged, which can be divided into two situations, namely, the first ceramic regenerator The temperature of the heat bed 5 or the second ceramic regenerator bed 6 itself has not exceeded or has exceeded the maximum tolerance value, and in this embodiment, the temperature has exceeded the maximum tolerance value.
[0051] Specifically, taking the first treatment in the first embodiment above as an example, when the exhaust gas blows to the second chamber 802 through the first ceramic heat storage bed 5, the isolation plate 28 is in the position of connecting the second chamber 802 and the outer frame In the state where the inner cavity of 20 is isolated, if the temperature of the gas in the second chamber 802 is too high, the heat-sensitive expansion joint 35 will be heated and expanded, and then the trigger plate 34...
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