JPH0868530A - Furnace equipped with regenerative type burner with cleaning function and refuse incinerating equipment - Google Patents

Abstract

PURPOSE: To prolong the useful life of a heat accumulator and thereby to reduce the number of times of replacement thereof in a furnace equipped with a regenerative type burner wherein the heat accumulator is heated by using exhaust gas and combustion air is preheated by passing it through this heat accumulator. CONSTITUTION: Heat accumulators 3A to 3D are attached in twos to respective paired heating burners 2A and 2B disposed at the main body 1 of a heating furnace. The heating burners 2A and 2B are started by using one of the heat accumulators 3A and 3B in one set and one of 3C and 3D in the other alternately, while a jet pulse is sent into the other in each set of the heat accumulators 3A to 3D which is out of operation and thereby a contaminant of exhaust gas sticking to a heat accumulating medium 3a inside the heat accumulator is peeled off and removed.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention is used in various furnaces such as an aluminum melting furnace, a rolling heating furnace, a forging heating furnace, etc., and a regenerative burner with a cleaning function for preheating combustion air by a heat storage function (regenerative burner). The present invention also relates to a waste incineration facility in which a boiler of a semi-continuous waste incinerator that repeats operation and suspension is equipped with a heat storage type burner with a cleaning function.

[0002]

2. Description of the Related Art Conventionally, at least a pair of heat storage bodies are provided, the combustion exhaust gas from a burner and combustion air are alternately sent, and the combustion air is preheated to near the furnace temperature by the waste heat recovered from the exhaust gas. The equipment for supplying the burner has been put to practical use in aluminum melting furnaces, rolling heating furnaces, forging heating furnaces, etc.
It has succeeded in saving money.

[0003]

However, the heat storage medium used for the heat storage body is, for example, one formed by firing alumina into a ball shape having a diameter of 20 to 50 mm, or a crushed stone electroformed article. An irregular nugget having a size of 20 to 30 mm is used and has a filtering function for exhaust gas. Therefore, when the exhaust gas contains a large amount of polluting components, the heat storage body is heavily contaminated, and it is necessary to replace the heat storage body at regular intervals of use, which necessitates stopping the furnace.

The present invention is provided with a heat storage type burner with a cleaning function which solves the above problems and enables the heat storage body to be used for a long time without replacement even when heat is recovered from dirty exhaust gas. The purpose is to provide a furnace and refuse incineration equipment.

[0005]

In order to solve the above problems, a furnace equipped with a heat storage type burner with a cleaning function of the present invention is
The furnace body is equipped with at least a pair of burners, each burner is provided with two heat storage bodies, the combustion air port of each burner is in communication with each heat storage body, and each heat storage body is supplied with an exhaust gas pipe and air. Connect the pipe and the washing air pipe respectively,
A cleaning air pump capable of supplying pulsating air for cleaning is arranged at the upstream end of the cleaning air pipe, and the combustion air is supplied to the burner on the start side through one heat storage body, and the combustion air port of the burner on the stop side is provided. The exhaust gas is discharged from one of the heat storage bodies, and this is alternately started and stopped by both burners at regular intervals, and the cleaning air is supplied from the wash air pump to the other heat storage body. A burner control device is provided to switch between one heat storage body and the other heat storage body after a lapse of time.

Further, in the refuse incinerator equipped with the heat storage type burner with a cleaning function according to the present invention, a boiler provided with a water pipe group is disposed in the exhaust gas passage of the refuse incinerator, and at least one pair of heating burners is provided in the boiler. Each heating burner is provided with two heat storage bodies, and the combustion air port of each heating burner communicates with each heat storage body, and each heat storage body has an exhaust gas pipe, an air supply pipe, and a cleaning air pipe. And a cleaning air pump capable of supplying cleaning pulsating air at the upstream end of the cleaning air pipe, respectively, while the refuse incinerator is at rest,
Combustion air is supplied to the heating burner on the start side through one of the heat storage bodies, and exhaust gas is discharged from the combustion air port of the heating burner on the stop side through one of the heat storage bodies. Repeatedly start each time
A burner controller is provided to stop and supply the cleaning pulsating air from the cleaning air pump to the other heat storage body of each heating burner, and to switch between the one heat storage body and the other heat storage body after a predetermined time has elapsed. is there.

Further, the waste incineration facility equipped with a heat storage type burner with a cleaning function is provided with a boiler equipped with a water pipe group in the exhaust gas path of the waste incinerator, and a heating burner is provided on the upstream side of this boiler to heat the boiler. At least one to two on the burner
A cleaning air pump capable of arranging a pair of heat storage bodies, connecting an exhaust gas pipe, a combustion air supply pipe, and a cleaning air pipe to each of the heat storage bodies, and supplying pulsating air for cleaning to the upstream end of the cleaning air pipe. , The two sets of heat storage bodies are switched alternately during the rest of the refuse incinerator, the exhaust gas is introduced into one of the heat storage bodies of the set to be used for heating, and the combustion air is supplied to the heat storage body of the other set. A burner control device is provided to allow the cleaning pulsating air to pass through each of the remaining heat storage bodies of each group while preliminarily heating it by passing it through.

[0008]

In the above structure, the cleaning pulsating air blown into the resting heat storage body can remove and remove the contaminants removed from the exhaust gas by filtering and adhering to the surface for cleaning. It is possible to prevent the deterioration, extend the service life, reduce the operating cost, extend the operating time, and perform the heat storage replacement work even during the operation of the furnace.

In the above refuse incinerator, a heating burner is used during operation of the refuse incinerator and while the refuse incinerator is stopped.
The boiler can be heated to prevent dew point corrosion due to dew condensation of harmful substances in the exhaust gas. In addition, the heat storage type heating burner or the heat storage type air preheater can effectively use the exhaust gas of the heating burner to heat the combustion air up to the temperature inside the boiler, so the fuel consumption of the heating burner is almost half. The operating cost can be significantly reduced. Furthermore, since the contaminants removed from the exhaust gas and adhered to the surface can be peeled off and cleaned, the function of the heat storage body can be prevented from deteriorating and the service life can be extended.

[0010]

EXAMPLE A first example of the heating furnace according to the present invention will be described below with reference to FIG. The furnace body 1 is provided with a pair of first and second heating burners (burners) 2A and 2B facing each other, and is configured to be alternately started and stopped by the burner control device 12 at predetermined start times. Has been done.
Each of the first and second heating burners 2A and 2B has two
Individual first to fourth heat storage bodies 3A to 3D are respectively arranged, and these first to fourth heat storage bodies 3A to 3D are granular heat storage capable of sending exhaust gas or air through gaps in the heat insulation box. The medium 3a is housed, and the heat storage medium 3a is, for example, one formed by firing alumina into a ball shape having a diameter of 20 to 50 mm, or a crushed alumina electroformed product of 20 to 3
A 0 mm irregular shape is used.

Further, the fuel injectors of the first and second heating burners 2A and 2B are connected to first and second fuel supply pipes 4A and 4B, respectively, in which first and second fuel control valves 4a and 4b are interposed. ing.

Combustion air preheated by the heat storage medium 3a of the first and second heat storage bodies 3A and 3B is alternately supplied to the first heating burner 2A. That is, when the first heating burner 2A is combusted, the combustion air is supplied from the first and second air supply pipes 6A and 6B connected to the discharge port of the air supply fan 5A to the first and second air control valves 6a. , 6b and introduced into the first and second heat storage bodies 3A, 3B, respectively,
After passing through the heat storage medium 3a and being preheated to a temperature as high as the furnace temperature, the first and second heat storage bodies 3A and 3B are connected to each other.
From the second air inlet pipes 7A, 7B to the third and fourth air control valves 6
It is sent to the first and second communication pipes 8A and 8B via c and 6d, and is further sent to the combustion air port of the first heating burner 2A through the first and second heat storage body switching valves 8a and 8b.

Further, the exhaust gas burned in the first heating burner 2A is introduced into the third and fourth heat storage bodies 3C and 3D via the second heating burner 2B, and the third and fourth heat storage bodies 3C and 3C.
The heat storage medium 3a of D is heated and then discharged. That is, the exhaust gas of the first heating burner 2A is
The third and third connected to the combustion air port of the second heating burner 2B
From the fourth communication pipe 8C, 8D to the third and fourth heat storage body switching valve 8
It is introduced into the third and fourth exhaust gas introduction pipes 9A and 9D via c and 8d, and is further introduced into the third and fourth heat storage bodies 3C and 3D via the fifth and sixth exhaust gas control valves 9e and 9f. . Furthermore, the 3rd and 4th connected to the 3rd and 4th heat storage bodies 3C and 3D.
The exhaust gas is discharged from the exhaust gas discharge pipes 10C and 10D through the seventh and eighth exhaust gas control valves 9g and 9h, and is sent to the bag filter 11 and discharged.

Next, when the second heating burner 2B is combusted, the second heating burner 2B also has the third and fourth heat storage bodies 3
Combustion air preheated by the C and 3D heat storage media 3a is alternately supplied. That is, the combustion air is supplied from the second and third air supply pipes 6C and 6D connected to the discharge port of the air supply fan 5B to the fifth and sixth air control valves 6e and 6e.
After being introduced into the third and fourth heat storage bodies 3C and 3D via f, respectively, the third and fourth air supply pipes 7C and 7D to the seventh are connected to the third and fourth heat storage bodies 3C and 3D. , Is sent to the third and fourth communication pipes 8C, 8D via the eighth air control valves 7g, 7h, and is further burned by the second heating burner 2B via the third and fourth heat storage element switching valves 8c, 8d. Sent to the air vent.

Further, the exhaust gas burned in the second heating burner 2B is introduced into the first and second heat storage bodies 3A and 3B via the first heating burner 2A, and the first and second heat storage bodies 3A and 3B.
The heat storage medium 3a of B is heated and then discharged. That is, the exhaust gas of the second heating burner 2B is
The first and the first connected to the combustion air port of the first heating burner 2A
From the second communication pipe 8A, 8B to the third and fourth heat storage body switching valve 8
It is introduced into the first and second exhaust gas introducing pipes 9A and 9B via c and 8d. Then, after heating the heat storage medium 3a, the first,
It is introduced into the first and second heat storage bodies 3A and 3B via the second exhaust gas control valves 9a and 9b. Further, the heated exhaust gas is discharged from the first and second exhaust gas discharge pipes 10A and 10B connected to the first and second heat storage bodies 3A and 3B to the third and fourth exhaust gas control valves 9 and 9, respectively.
It is discharged via c and 9d, sent to the bag filter 11 and discharged.

Further, in each of the first to fourth heat storage bodies 3A to 3D, the first to fourth cleaning air supply pipes 14A to 14C connected to the discharge port of the cleaning air pump 13 are connected to the first to fourth cleaning air. A pulse jet (pulsating air for cleaning) is supplied through the control valves 14a to 14d, and the first to fourth heat storage bodies 3 at rest are in operation.
The heat storage medium 3a in A to 3D can be cleaned. The air after cleaning is the first to fourth cleaning air discharge pipes 15A.
-15D to 5th-8th wash air control valves 15a-15d
It is discharged to the bag filter 11 via the.

In the above structure, the burner controller 12
As a result, the first and second fuel control valves 4a and 4b and the first to eighth fuel control valves
Air control valves 6a to 6h, first to eighth exhaust gas control valves 9a to
9h is operated, and the first and second heating burners 2A and 2B are alternately started and stopped at predetermined start times. At this time, the 1st-4th heat storage body switching valves 8a-8d are operated, and the 1st, 3rd heat storage body 3A, 3C and the 2nd, 4th heat storage body 3B, 3 are carried out.
D and D are alternately used at regular intervals, and the first, third heat storage bodies 3A, 3C or the second, fourth heat storage bodies 3B, 3D in use
The exhaust gas and the combustion air are alternately introduced and discharged by the burner control device 12, so that the combustion air can be preheated to a high temperature near the furnace temperature and burned. Further, the first to third heat storage bodies 3A and 3C or the second and fourth heat storage bodies 3B and 3D which are at rest are provided with the first to fourth cleaning air control valves 14a to 14a.
14d is operated and a pulse jet is blown from the cleaning air pump 13 in the direction opposite to the exhaust gas introduction direction, and the internal heat storage medium 3a is cleaned.

Therefore, the first and second heating burners 2
Even if the exhaust gas discharged from A and 3B is polluted, the heat storage medium 3a is washed with the pulse jet during the rest, so that the durable use period of the heat storage medium 3a can be extended and the operating cost can be reduced. It can be reduced. Further, it is not necessary to stop the operation of the heating furnace when replacing the heat storage medium 3a.

Next, a second embodiment will be described with reference to FIG. In this second embodiment, the heat storage burner with a cleaning function shown in the first embodiment is applied to a boiler of a semi-continuous waste incineration facility that repeats suspension and operation. The same members as those shown in the first embodiment are designated by the same reference numerals and the description thereof will be omitted.

The stalk-type incinerator main body 21 is provided with a dust input hopper 22 on the upstream side, an inclined grate 23 inside, and an ash outlet 24 formed at the downstream end of the grate 23. The combustion air sucked from the dust pit 25 by the first air supply fan 26A through the air suction pipe 27 is supplied to the grate 23 and the combustion chamber 29 through the steam air preheater 28 or directly from the wind box. Is configured. 26B is a second air supply fan that sucks the burner combustion air from the dust pit 25.

Reference numeral 31 is a boiler for introducing exhaust gas discharged from the upper part of the combustion chamber 29 through the main exhaust gas introduction pipe 32 to recover waste heat. The recovered exhaust gas is the main exhaust gas discharge pipe 33.
After being introduced into the bag filter 34 to remove dust, it is discharged from the chimney 36 by the main exhaust fan 35.

The boiler 31 has a casing 61 in which an outer guide cylinder 62 having an upper surface opening and an inner guide cylinder 63 having a lower surface opening are provided.
Are arranged at the same axial center position at a predetermined interval to form detour paths, and the heat exchange water pipe group 64 is arranged on these detour paths. The main exhaust gas introduction pipe 32 is connected to the upper part of the inner guide cylinder 63, and the heat storage type first heating burner 2A which is activated when the incinerator is stopped is installed at the upper end of the inner guide cylinder 63.
A lower guide tube 65 vertically provided on the axial center of the casing 21.
A main exhaust gas discharge pipe 33 and a heat storage type second heating burner 2B which is activated when the incinerator is stopped are installed in the. 37
A and 37B are gas discharge pipes to which the first to fourth exhaust gas discharge pipes 10A to 10D and the first to fourth cleaning air discharge pipes 15A to 15C are connected, and exhaust fans 38A and 38B are interposed, respectively, and main exhaust gas pipes. It is connected to 33.

The first and second heating burners 2A, 2B
Closed the main exhaust gas valves 37A, 37B interposed between the main exhaust gas introduction pipe 32 and the main exhaust gas discharge pipe 33 in order to prevent dew point corrosion due to dew condensation caused by the temperature decrease of the boiler 31 when the refuse incinerator was stopped. It will be started later,
Since the startup state is the same as that in the first embodiment, the description will be omitted.

According to the above-mentioned embodiment, in the quasi-continuous type refuse incinerator which repeats suspension and operation, when the refuse incinerator is operated, the waste heat can be recovered from the exhaust gas with high efficiency by the boiler 31 using water as a heat medium. In addition, at the time of rest, the first and second heating burners 2A and 2B prevent the temperature of the boiler 31 from lowering to prevent dew point corrosion.
With the fourth heat storage bodies 3A to 3D, it is possible to reduce the fuel consumption by the first and second fuel consumption.
The heating burners 2A and 2B can be started up. Further, since the exhaust gas obtained by heating the boiler 31 to which the polluted exhaust gas is sent is used during the operation of the refuse incinerator, there is a possibility that a larger amount of contaminants than usual may be attached due to the filtering function of the heat storage medium 3a. However, since the heat storage medium 3a can be washed with the pulse jet during the rest, the service life of the heat storage medium 3a can be extended. FIG. 3 shows a third embodiment in which the heat storage burner with a cleaning function is applied to a quasi-continuous waste incinerator which repeats suspension and operation. The same members as those in each of the above-described embodiments are designated by the same reference numerals, and the description thereof will be omitted.

In the third embodiment, a pair of heating burners are alternately started and stopped with respect to the furnace or the boiler, whereas one heating burner is provided and the combustion air path connected to this heating burner is used. The heat storage bodies are switched by alternately switching one to two sets of heat storage bodies to pass the exhaust gas and the combustion air to preheat the combustion air and to supply a pulse jet (pulsing air for cleaning) to the heat storage bodies not in use. Is configured to perform cleaning.

That is, the boiler 42 having a water pipe group for waste heat recovery in the exhaust gas passage in the furnace body 41 of the refuse incinerator.
The exhaust gas discharged from the boiler 42 is introduced from the exhaust gas pipe 43 into the bag filter 34 to remove dust, and then discharged from the chimney 36 into the atmosphere by the main exhaust fan 35. Further, on the upper rear wall of the ash outlet 24 of the furnace body 41, the boiler 4 is activated when the refuse incinerator is stopped.
A heating burner 40 for heating 2 is installed, and a regenerative air preheating device 44 with a cleaning function is attached to a combustion air supply path to the heating burner 40.

The air preheater 44 is composed of a pair of first and second sets.
The second heat storage bodies 45A, 45B and the third and fourth heat storage bodies 45C,
45D are arranged respectively and heated by the exhaust gas discharged from the exhaust gas pipe 43. That is, from the upstream side of the exhaust gas pipe 43, the first and second exhaust gas introducing fans 46A, 46B
Are branched through the first and second exhaust gas introduction pipes 47A and 47B in which the first to fourth exhaust gas control valves 48a to 48 are provided.
It is sent to the 1st-4th heat storage bodies 45A-45D via d. And after passing through the heat storage medium accommodated in the 1st-4th heat storage bodies 45A-45D and heating, an exhaust gas is 5th.
~ Returned from the exhaust gas discharge pipe 49 to the downstream side of the exhaust gas pipe 43 via the eighth exhaust gas control valves 48e to 48h.

On the other hand, from the dust pit 5 to the second air supply fan 2
The combustion air sucked by 6B is branched from the main air supply pipe 50 and sent to the first to fourth heat storage bodies 45A to 45D via the first to fourth air control valves 51a to 51d. And after passing through the heat storage medium accommodated in the 1st-4th heat storage bodies 45A-45D and being preheated, combustion air is 52A of air inlet pipes through the 5th-8th air control valves 51e-51h. , 5
2B, the first and second air inlet pipes 52A, 52B
It is configured to be supplied to the heating burner 40 via the first and second air switching valves 53a and 53b interposed in the.

Further, the first to fourth heat storage bodies 45A to 45D
The first to the first connected to the discharge port of the cleaning air pump 13
A pulse jet (pulsating air for cleaning) is supplied from the fourth cleaning air supply pipes 14A to 14C through the first to fourth cleaning air control valves 14a to 14d, and the first to fourth heat storage bodies 45A to 45A.
The heat storage medium in 45D can be cleaned. The air after cleaning is the fifth to eighth cleaning air control valves 15e to 15h.
Through the first to fourth cleaning air exhaust pipes 15A to 15D and the exhaust gas exhaust pipe 49 to the exhaust gas pipe 43.

The first and second heat storage bodies 45A and 45B and the third and third heat storage bodies 45A and 45B
The fourth heat storage bodies 45C and 45D have the same configuration as the first and second embodiments, and the burner control device 54 controls the first to eighth exhaust gas control valves 48a to 48 according to the type and capacity of the heat storage medium.
Combustion air is supplied to the heating burner 40 by operating d, the first to eighth air control valves 51a to 51h, and the first and second air switching valves 53a and 53b to be switched at regular intervals. Further, the first heat storage body 45A and the second heat storage body 45B of each set, or the third heat storage body 45C and the fourth heat storage body 4D of each set.
Is also switched at regular intervals of use, and the first to eighth cleaning air control valves 14a to 14h are operated to perform cleaning alternately.

According to the above embodiment, the same effect as that of the second embodiment can be obtained.

In the first embodiment, the heating furnace equipped with the heat storage type burner with a cleaning function has been described, but a melting furnace for incinerated ash discharged from the refuse incinerator may be used. It can also be configured as in the embodiment.

[0033]

As described above, according to the present invention, the pulsating air for cleaning which is blown into the heat storage body at rest removes and removes the contaminants removed from the exhaust gas by filtering and adhering to the surface for cleaning. As a result, the function of the heat storage body can be prevented from deteriorating and the service life can be extended, the operating cost can be reduced, and the operating time can be extended, so that the heat storage body can be replaced even during the operation of the furnace. You can do the work.

In the above refuse incinerator, a heating burner is used during operation of the refuse incinerator and while the refuse incinerator is stopped.
The boiler can be heated to prevent dew point corrosion due to dew condensation of harmful substances in the exhaust gas. In addition, the heat storage type heating burner or the heat storage type air preheater can effectively use the exhaust gas of the heating burner to heat the combustion air up to the temperature inside the boiler, so the fuel consumption of the heating burner is nearly half. The operating cost can be significantly reduced. Furthermore, since the contaminants removed from the exhaust gas and adhered to the surface can be removed by stripping and cleaned, the function of the heat storage body can be prevented from deteriorating and the service life period can be extended.

[Brief description of drawings]

FIG. 1 is a configuration diagram of a heating furnace showing a first embodiment according to the present invention.

FIG. 2 is a configuration diagram of a refuse incineration facility showing a second embodiment according to the present invention.

FIG. 3 is a block diagram of a refuse incineration facility showing a third embodiment according to the present invention.

[Explanation of symbols]

 1 Furnace Main Body 2A First Heating Burner (Burner) 2B Second Heating Burner (Burner) 3A to 3B First to Fourth Heat Storage Body 4A First Fuel Supply Pipe 4B Second Fuel Supply Pipe 6A to 6D First to Fourth Air Supply pipes 6a to 6h First to eighth air control valves 7A to 7D First to fourth air inlet pipes 8A to 8D First to fourth communication pipes 8a to 6d First to fourth heat storage body switching valves 9A to 9D First to fourth exhaust gas introduction pipes 9a to 9h First to eighth exhaust gas control valves 10A to 10D First to fourth exhaust gas discharge pipes 12 Burner control device 13 Cleaning air pumps 14A to 14B First to fourth cleaning air supply pipes 14a to 14d Cleaning air control valve 15A to 15D First to fourth cleaning air discharge pipes 15a to 15d Cleaning air control valve 21 Furnace body 31 Boiler 32 Main exhaust gas conduit 33 Main exhaust gas discharge pipe 64 Water pipe group 37A Gas discharge 37B Gas discharge pipe 40 Heating burner 41 Furnace main body 42 Boiler 43 Exhaust gas pipe 44 Air preheating device 45A to 45D First to fourth heat storage bodies 47A, 47B First and second exhaust gas introduction pipes 48a to 48h First to eighth exhaust gas control Valve 49 Exhaust gas discharge pipe 50 Main air supply pipe 51a-51h 1st-8th air control valve 52A, 52B 1st, 2nd air inlet pipe 53a, 53b 1st, 2nd air switching valve

Claims (3)

[Claims] 1. A furnace main body having at least a pair of burners, each burner having two heat storage bodies, each of which is connected to a combustion air port of each burner and each heat storage body. An exhaust gas pipe, an air supply pipe, and a cleaning air pipe are connected to each other, and a cleaning air pump capable of supplying pulsating air for cleaning is arranged at the upstream end of the cleaning air pipe, and one burner on the starting side is connected via one heat storage body. In addition to supplying combustion air, exhaust gas is discharged from the combustion air port of the burner on the stop side through one of the heat storage bodies, and both burners repeatedly start and stop at regular intervals,
A heat storage device with a cleaning function characterized in that a cleaning air pump is supplied to the other heat storage member of each burner from a cleaning air pump, and a burner control device is provided for switching between the one heat storage member and the other heat storage member after a lapse of a predetermined time. Furnace with self-heating burner. 2. A boiler equipped with a water tube group is provided in the exhaust gas passage of a refuse incinerator, and at least one pair of heating burners is provided in this boiler, and each heating burner is provided with two heat storage bodies. , The combustion air port of each heating burner is communicated with each heat storage body, and each heat storage body is connected with an exhaust gas pipe, an air supply pipe, and a cleaning air pipe, and the cleaning air pulsating air is provided at the upstream end of the cleaning air pipe. A cleaning air pump that can supply the combustion air is installed to supply combustion air to the heating burner on the startup side via one heat storage body while the waste incinerator is at rest, and exhaust gas from the combustion air port of the heating burner on the stop side. Is discharged through one of the heat storage bodies, and these heating burners are alternately repeated at regular intervals to start and stop, and the other heat storage body of each heating burner is washed with pulsating air from the cleaning air pump. Supply and further a predetermined time has elapsed after one regenerator and the other waste incineration facilities equipped with a regenerative burner with cleaning function, characterized in that a heating burner control unit for switching the regenerator. 3. A boiler having a water pipe group is arranged in an exhaust gas passage of a refuse incinerator, a heating burner is provided on an upstream side of the boiler, and at least one pair of heat storage bodies are arranged in the heating burner, An exhaust gas pipe, a combustion air supply pipe, and a cleaning air pipe are connected to each heat storage body, and a cleaning air pump capable of supplying pulsating air for cleaning is arranged at the upstream end of the cleaning air pipe to suspend the refuse incinerator. Inside, the two sets of heat storage bodies are switched alternately, the exhaust gas is introduced into one of the heat storage bodies of the set to be used for heating, and the combustion air is passed through the heat storage body of the other set to preheat the heat storage body. A refuse incinerator equipped with a heat storage type burner with a cleaning function, which is provided with a burner control device that is switched alternately and that supplies pulsating air for cleaning to the remaining heat storage bodies of each set.