KR100882854B1 - Plastic pyrolysis burner - Google Patents

Abstract

A plastic pyrolysis burner is provided to completely burn solid fuel inside a combustion tank by injecting air and oil onto a screw shaft. A plastic pyrolysis burner comprises a hollow transfer pipe member(100) receiving solid fuel from outside; a rotary shaft member having a spiral wing in order to compulsorily transfer fuel from one side to the other side; a combustion part(300) firstly burning solid fuel by feeding air and oil into the hollow transfer member, and then igniting compulsorily them; a joint(400) preventing the twist of an air supply pipe(306) and an oil supply pipe(308); and a burning tank(500) connected to the other side of the transfer pipe member. The burning tank stores solid fuel forced by solid fuel fed by rotation of a wing. The burning tank burns completely solid fuel forced by drawing in air.

Description

Solid fuel pyrolysis gas combustion burner device {PLASTIC PYROLYSIS BURNER}

The present invention relates to a solid fuel pyrolysis gas combustion burner device, and more particularly, by forming a rotating fan to spread pyrolysis gas generation at a screw tip portion compared to the existing technology, while accelerating pyrolysis of solid fuel and at the same time in the combustion tank. It is designed to mix air well by attaching a nozzle at the inside, and solid fuel pyrolysis gas combustion that can be completely combusted inside the combustion tank by injecting air and oil into the screw shaft that rotates continuously by attaching a joint at the rear end of the screw. Relates to a burner device.

Korea's infrastructure industry is already falling due to rising oil prices. Still, many oil consumptions, such as diesel or B / C oil, are increasing in industrial boilers including rotary dryers.

After the EPR system, mixed waste solid fuel, which generates about 5 million tons per year, is disposed of by landfill or incineration.

Utility Model Registration No. 0412529, filed in advance by the present applicant, since the heat source is generated at a high temperature of 1,300 ° C. or more, the incineration of the RDF fuel does not produce dioxin having a property of pyrolyzing at high temperature, and exhausts after incineration using a double combustion structure. Since the emission of gas can be adjusted below the environmental standard, a structure has been proposed that is stable and is easy to maintain and maintain since it is composed of a compact one-piece.

Existing solid fuel burner device is configured to use only a homogeneous raw material has a lot of trouble when purchasing raw materials, there is a problem that the emission of dioxin is increased when the amount of solid fuel calories. Therefore, there is a need for improvement.

The present invention has been made to improve the above problems, solid fuel pyrolysis gas combustion burner device that can minimize the emission of harmful gases such as dioxin by completely burning the solid fuel supplied without being limited to the solid fuel of various thicknesses The purpose is to provide. In addition, the present invention is to connect the joint to the rotary shaft member to burn the solid fuel pyrolysis gas to prevent the twisting of the air supply pipe and the oil supply pipe is provided for supplying oil and air to the inside of the rotary shaft member for the complete combustion of the solid fuel The purpose is to provide a burner device. In addition, the present invention forms an external air layer in the combustion tank which is mixed with the solid fuel and air and oil, and the solid fuel pyrolysis gas combustion to improve recyclability by reintroducing the air into the rotating shaft member after heat exchange with the combustion heat The purpose is to provide a burner device.

The solid fuel pyrolysis gas combustion burner device according to the present invention includes: a transfer pipe member formed of a hollow having both sides open to receive solid fuel from the outside, and a solid fuel rotatably formed and supplied inside the transfer pipe member. In order to forcibly transport in the other direction in the rotating shaft member formed a spiral wing on the circumferential surface, the external air and oil through the rotating shaft member is supplied to the conveying pipe member inside the solid fuel by mixing with the solid fuel and forced ignition Combustion unit for first combustion, the joint to prevent the twist of the air supply pipe for supplying air into the rotary shaft member and the oil supply pipe for supplying oil when the rotary shaft member is rotated and the other side of the transfer pipe member Complete combustion solid fuel pushed by solid fuel continuously supplied by the rotation of the wing And a combustion tank for containing for combustion.

The combustion unit is formed along a central axis of the rotating shaft member and connected to the oil supply pipe to guide the flow of external oil, the shaft is inserted into and fixed to the oil path and connected to the air supply pipe to guide the flow of external air. An air flow path, a combustion chamber formed inside the other side of the transfer pipe member, a first flow hole formed in the air flow path corresponding to the combustion chamber and guiding air flow into the oil flow path, and corresponding to the first flow hole A second flow hole which is formed in the oil passage and guides the oil to flow into the combustion chamber together with air; a heating member formed on a circumferential surface of the rotary shaft member to warm air and oil in the transfer pipe member; It is installed inside the chamber and generates a flame by external operation so that it is ignited by heated air and oil and solid fuel It includes an ignition member for inducing combustion in the primary.

The rotary shaft member is characterized in that for forming an opening opening the opening of the end portion toward the combustion tank, the rotating fan is naturally rotated by the air blown into the opening hole.

The joint is coupled to the rotary shaft member is rotated with the rotary shaft member by an external force and communicated to both sides, the ring member for inserting the air supply pipe and the oil supply pipe, a ball bearing formed on the circumferential surface of the ring member, and the ball bearing And a housing connected to the air supply pipe and the oil supply pipe during rotation of the ring member to expose the air supply pipe and the oil supply pipe to the outside through the ring member.

The combustion tank is provided with a nozzle communicating with the inside and the outside on the inner side to inject external air into the first case to activate the combustion of the solid fuel, the outer side of the first case so as to be spaced apart from the first case. A second case which is connected to the blower fan and is connected to the blowing fan to store external air ejected by the nozzle between the first case and injects external air at room temperature to circulate high temperature air into the air supply pipe The first case is connected to the outside of the second case so as to be spaced apart from the second case so as to exchange heat with the high temperature air inside the first case, and to exhaust the gas generated in the first case. Includes exhaust pipes inserted in two or three cases.

The nozzle is formed to be inclined to form an acute angle with the surface of the first case to improve the combustion rate of the solid fuel, the blowing fan is connected to the air regulator to automatically adjust the amount of air to be excised, the first and second , 3 case is characterized in that to form a back.

The first case is divided into two, the second case is divided to correspond to the first case, the third case is divided to correspond to the second case and can be separated by having a flange facing the connecting portion It is characterized by the binding.

The transfer pipe member is provided with a transparent window to check the internal situation, the combustion tank is inserted into the toxic gas meter inside through the exhaust pipe, the toxic gas meter is connected to the display window to display a signal It features.

As described above, the solid fuel pyrolysis gas combustion burner device according to the present invention can minimize the emission of harmful gases such as dioxins by completely burning the solid fuel supplied without being limited to solid fuels of various thicknesses unlike the prior art. . In addition, the present invention can prevent the twisting of the air supply pipe and the oil supply pipe is provided to supply the oil and air to the inside of the rotary shaft member for the complete combustion of the solid fuel by connecting the joint to the rotary shaft member. In addition, the present invention forms an external air layer in the combustion tank which is mixed with the solid fuel and air and oil to reintroduce the air into the rotating shaft member after heat exchange with the combustion heat to improve the recyclability.

Hereinafter, with reference to the accompanying drawings will be described an embodiment of a solid fuel pyrolysis gas combustion burner apparatus according to the present invention. In this process, the thickness of the lines or the size of the components shown in the drawings may be exaggerated for clarity and convenience of description. In addition, terms to be described below are terms defined in consideration of functions in the present invention, which may vary according to the intention or convention of a user or an operator. Therefore, the definitions of these terms should be made based on the contents throughout the specification.

1 is a schematic diagram of a solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention, Figure 2 is a cross-sectional view of a solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention, Figure 3 is An enlarged cross-sectional view of a main portion of a joint of a solid fuel pyrolysis gas combustion burner device according to an embodiment.

And, Figure 4 is an enlarged cross-sectional view of the combustion tank of the solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention, Figure 5 is a heating member mounted state of the solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention It is a cross-sectional view.

1 to 5, the solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention is the transfer pipe member 100, the rotating shaft member 200, the combustion unit 300, the joint 400 and combustion Tank 500.

The transfer pipe member 100 serves to guide the transfer by receiving solid fuel of various sizes such as waste plastic. Thus, the transfer pipe member 100 is provided with a hopper 110 at one edge to receive the solid fuel from the outside. Therefore, the solid fuel is supplied through the hopper 110 is forced to the other side of the feed pipe member 100 by the rotary shaft member 200. At this time, since the rotating shaft member 200 is rotated inside the conveying tube member 100 and forcibly conveying the solid fuel, the conveying tube member 100 is preferably formed in a cylindrical tube shape. In addition, the transfer pipe member 100 is preferably open to both sides by connecting the combustion unit 300 to one end, and connecting the combustion tank 500 to the other end. In addition, the hopper 110 can be applied in various shapes.

On the other hand, the rotating shaft member 200 is provided in the transfer pipe member 100 to be rotatable. That is, the rotating shaft member 200 is inserted into the shaft inside the transfer pipe member 100 is rotated by an external force. Then, the rotating shaft member 200 forms a wing 210 in a spiral on the circumferential surface. The wing 210 is rotated together with the rotary shaft member 200 as formed integrally with the rotary shaft member 200. Therefore, the solid fuel is forcibly conveyed to the other side of the conveying tube member 100 by the wing 210 which is rotated after being fed into the conveying tube member 100 through the hopper 110.

In addition, the transfer pipe member 100 and the rotary shaft member 200 may be provided with one or more. For convenience, the conveying pipe member 100 and the rotary shaft member 200 is shown in a twin-axial structure provided by a pair.

Then, the rotating shaft member 200 is exposed to one end of the conveying tube member 100, the rotating shaft member 200 is connected to the combustion unit 300. Combustion unit 300 serves to burn the solid fuel primarily by inducing ignition in the transfer pipe member 100.

At this time, the combustion unit 300 is the oil flow path 302, the air flow path 304, the combustion chamber 310, the first flow hole 322, the second flow hole 324, the heating member 330 and the ignition member 340.

Here, the oil passage 302 is formed to communicate with both sides along the central axis of the rotary shaft member 200. The oil passage 302 serves to guide the external oil flow to the other side of the rotary shaft member 200. At this time, the oil passage 302 exposed to one end of the rotating shaft member 200 is connected to the oil supply pipe 308. In particular, the oil supply pipe 308 is fitted to the oil passage 302. Of course, the oil supply pipe 308 may be coupled to the oil passage 302 in various ways.

In addition, the air flow passage 304 is inserted into the oil passage 302 is fixed to the shaft, and serves to guide the outside air flow to the other side of the rotary shaft member 200. In particular, the air passage 304 and the oil passage 302 is formed in a double tube shape, the air passage 304 is located on the inside, the oil passage 302 is located outside the air passage 304. Of course, the oil channel 302 may be axially inserted into the air channel 304. In addition, the air flow passage 304 exposed to one end of the rotating shaft member 200 is connected to the air supply pipe 306. Here, the air supply pipe 306 is coupled to the air flow path 304. Of course, the air supply pipe 306 may be coupled to the air flow path 304 in various ways.

At this time, the rotary shaft member 200 is a solid circular shaft shape, the oil channel 302 and the air channel 304 is a passage that is communicated to both sides of the rotary shaft member 200.

On the other hand, the transfer pipe member 100 forms a combustion chamber 310 inside the other side. The combustion chamber 310 serves to primarily burn the oil and air supplied after mixing with the solid fuel.

In particular, the air flow path 304 forms a first flow hole 322 to connect with the oil flow path 302 formed on the outside. In this case, the air flow path 304 is connected to the oil flow path 302 through the first flow hole 322 at a portion corresponding to the combustion chamber 310. Therefore, the air supplied from the outside is transferred to the oil passage 302 through the first flow hole 322.

The oil flow passage 302 forms a second flow hole 324 to be connected to the combustion chamber 310. Thus, the air flowing through the air flow path 304 is moved to the oil flow path 302 along the first flow hole 322, the air mixed with oil in the oil flow path 302 is the second flow hole 324 Is ejected into the combustion chamber 310 along the. At this time, since the air flow path 304 is located inside the oil flow path 302, the oil in the oil flow path 302 can be sufficiently ejected by air.

Air and oil are injected into the combustion chamber 310 through the second flow hole 324 and mixed with the solid fuel that is forcibly transported by the rotation of the rotary shaft member 200.

In particular, although the second flow hole 324 may be continuously connected, the second flow hole 324 has a space 326 between the oil flow path 302 and the circumferential surface of the rotary shaft member 200, so that the second flow hole 324 is non- It can be formed continuously. The space 326 always maintains air and oil and supplies a uniform amount of air and oil into the combustion chamber 310 through the second flow hole 324.

In addition, the heating member 330 is provided on the circumferential surface of the rotating shaft member 200. The heating member 330 serves to heat the air and oil flowing in the combustion chamber 310 and the rotating shaft member 200 at the same time as the solid fuel forced by the rotary shaft member 200 is heated. This is to warm the solid fuel, air and oil so as to easily ignite even at low temperatures. At this time, the heating member 330 is preferably a general heater rod, the rotary shaft member 200 is preferably received by fixing the heating member 330 by digging the seating groove 332 on the circumferential surface.

In addition, an ignition member 340 is provided in the combustion chamber 310 for ignition. The ignition member 340 generates a spark by an external operation, thereby igniting through air and oil, and the solid fuel is burned by the ignition. At this time, when the solid fuel starts to burn, air and oil may be cut off from supply. The ignition member 340 is preferably an ignition plug that generates sparks by external manipulation. Although not shown, the ignition member 340 is preferably formed to be allowed to enter and exit the combustion chamber 310, because the solid fuel in the combustion chamber 310 may be deformed due to high heat during combustion.

In addition, the rotating shaft member 200 forms an opening hole 352 which opens a part of the other end facing the combustion tank 500. And, the other end of the rotary shaft member 200 is equipped with a rotary fan 354. The rotary fan 354 is naturally rotated by the air blown out through the opening hole 352, so that the solid fuel, oil and air are well mixed in the combustion chamber 310, thereby increasing the combustion rate of the solid fuel. Improve. In addition, the solid fuel is maximally transferred to the combustion tank 500 due to the blowing of the rotating fan 354.

On the other hand, the oil supply pipe 308 to be inserted into the oil flow path 302 and the air supply pipe 306 to be inserted into the air flow path 304 so as not to be twisted during the rotation of the rotating shaft member 200 to supply oil and air stably. This is preferred. Thus, the rotating shaft member 200 connects the joint 400 to one side.

The joint 400 includes a ring member 410, a ball bearing 420, and a housing 430.

The ring member 410 is coupled to one end of the rotating shaft member 200, and is rotated by an external force. The ring member 410 transmits rotational force to the rotating shaft member 200. In particular, the ring member 410 is preferably rotated indirectly received by the driving force of the motor 412. Of course, the ring member 410 can be rotated by various power transmission elements. For convenience, the ring member 410 is shown as being coupled to each other by screwing the rotary shaft member 200, it may be coupled with the rotary shaft member 200 by a variety of ways.

In addition, the ring member 410 is formed in a cylindrical shape to insert the air supply pipe 306 and the oil supply pipe 308 therein. Thus, when the ring member 410 is rotated by an external force, the air supply pipe 306 and the oil supply pipe 308 are not rotated. This is because the oil channel 302 and the air channel 304 are formed on the central axis of the rotary shaft member 200.

In addition, a ball bearing 420 is formed on the circumferential surface of the ring member 410, and the housing 430 is connected to the ball bearing 420. Thus, the ring member 410 is rotated alone, the housing 430 is not rotated by the ball bearing 420. That is, the ring member 410 and the housing 430 are each rotatable independently of the ball bearing 420. At this time, since the housing 430 is connected to expose the air supply pipe 306 and the oil supply pipe 308 to the outside, the housing 430 is constrained by the air supply pipe 306 and the oil supply pipe 308 so as not to rotate.

Since the air supply pipe 306 and the oil supply pipe 308 are preferably independently exposed to the outside of the housing 430 to supply air and oil, respectively, a double pipe shape at the connection portion between the oil channel 302 and the air channel 304 is provided. And are separately formed at portions exposed to the outside of the housing 430.

In addition, the other side of the transfer pipe member 100 is provided with a combustion tank (500). The combustion tank 500 serves to receive the solid fuel being pushed out to be completely burned because the solid fuel supplied due to the rotation of the rotary shaft member 200 and the wing 210 is continuously transferred. The combustion tank 500 may be integrally formed or assembled to the transfer pipe member 100.

In particular, the combustion tank 500 includes a first case 502, a second case 504, a third case 506, and an exhaust pipe 520.

Here, the first case 502, the second case 504, and the third case 506 maintain a state spaced apart from each other. That is, an air layer is formed between the first case 502 and the second case 504 and between the second case 504 and the third case 506. In particular, the first case 502 and the second case 504 is spaced apart by a plurality of support 510, the second case 504 and the third case 506 is a plurality of other support 510 Spacing is maintained.

In more detail, the first case 502 forms the innermost layer of the combustion tank 500 and includes a nozzle 501 communicating on the inside and the outside on the inner side. The nozzle 501 serves to activate combustion of the solid fuel by forcibly injecting external air into the inside. In this case, the nozzles 501 are formed to protrude to be inclined to form an acute angle with the surface of the first case 502. Therefore, while the outside air injected into the first case 502 is circulated up and down, the combustion rate of the solid fuel is improved and the residence time of the air is increased.

The second case 504 is formed outside the first case 502 so as to be spaced apart from the first case 502 by the support 510. The second case 504 is connected to the blowing fan 505. The blowing fan 505 serves to blow outside air into the first case 502 and the second case 504. Outside air blown between the first case 502 and the second case 504 is continuously injected into the first case 502 through a nozzle. At this time, the blowing fan 505 is connected to the air regulator 507 to adjust the amount of outside air injected between the first case 502 and the second case 504. This air conditioner 507 is a general air volume control equipment.

On the other hand, the third case 506 is formed on the outside of the second case 504 to be spaced apart from the second case 504 by the support 510. The third case 506 forms an outside air inlet 508 to introduce outside air, and connects the circulation pipe 509. The circulation pipe 509 serves to circulate the outside air introduced into the outside air inlet 508 to the air supply pipe 306 in a heated state by heat exchange with the high temperature heat inside the first case 502. Therefore, since the air circulated into the rotary shaft member 200 is heated, the degree of recycling is improved as ignition is easily performed. At this time, the circulation pipe 509 is provided with a circulation fan 503 to circulate the air forcibly.

In addition, the first case 502, the second case 504, and the third case 506 together form an exhaust pipe 520. The exhaust pipe 520 serves to exhaust the gas generated during the combustion of the solid fuel in the first case 502.

In particular, the first case 502 generates ash therein while burning the solid fuel. Thus, the first case 502, the second case 504, and the third case 506 have a backrest 530 inserted together and protruding outward. Therefore, the ash generated inside the first case 502 flows into the ash tray 530, and the worker may process the ash of the ash tray 530. The backrest 530 may be applied in various shapes, such as the first and second cases 502, 504, and third cases 506, respectively, and may be formed to be opened and closed after cutting the corresponding bottom surfaces. .

In addition, the first case 502 is preferably divided into two so as to clean the inside. Thus, the first case 502 is divided into two, the second case 504 is divided to correspond to the first case 502, the third case 506 is divided to correspond to the second case 504 In addition to the load, the connecting portion of the third case 506 is preferably provided with a flange 540 facing and detachably fastened. At this time, since the first case 502, the second case 504, and the third case 506 are connected to each other by the support 510, only the third case 506 is coupled to the first case 502. The second case 504 naturally comes into contact with each other.

On the other hand, the combustion tank 500 is inserted into the toxic gas meter 552 inside the exhaust pipe 520, the toxic gas meter 552 is preferably connected to the display window 554 to display a signal. That is, the toxic gas meter 552 senses harmful gases such as dioxins, and preferably displays the corresponding signals numerically on the display window 554 in real time.

In particular, the transfer pipe member 100 is preferably provided with a transparent transparent window 556 on the circumferential surface to visually check the working conditions such as the rotation state of the rotary shaft member 200.

The solid fuel pyrolysis gas combustion burner device according to the present invention can supply solid fuel such as waste plastics of various sizes, and mix the solid fuel with air and oil in the combustion chamber 310, and in the combustion chamber 310. As the ignition occurs, the solid fuel is burned completely during the melting, pyrolysis and gas generation steps.

Although the present invention has been described with reference to the embodiments shown in the drawings, this is merely exemplary, and those skilled in the art to which the art belongs can make various modifications and other equivalent embodiments therefrom. Will understand. Therefore, the true technical protection scope of the present invention will be defined by the claims below.

1 is a schematic diagram of a solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention.

2 is a cross-sectional view of a solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention.

3 is an enlarged cross-sectional view of a main portion of a joint of a solid fuel pyrolysis gas combustion burner device according to an embodiment of the present invention.

4 is an enlarged cross-sectional view of a combustion tank of a solid fuel pyrolysis gas combustion burner device according to an embodiment of the present invention.

Figure 5 is a cross-sectional view showing a heating member mounted state of the solid fuel pyrolysis gas combustion burner apparatus according to an embodiment of the present invention.

<Explanation of symbols on main parts of the drawings>

100: transfer pipe member 110: hopper

200: rotating shaft member 300: combustion part

302: oil euro 304: air euro

306: air supply pipe 308: oil supply pipe

310: combustion chamber 330: heating member

340: ignition member 400: joint

410: ring member 420: ball bearing

430: housing 500: combustion tank

502,504,506: 1,2,3 cases

Claims (8)

A transfer pipe member formed of a hollow with both sides open to receive solid fuel from the outside; A rotating shaft member rotatably formed in the conveying tube member and having a spiral wing formed on a circumferential surface to forcibly convey the supplied solid fuel from one side to the other; A combustion unit for firstly burning solid fuel by supplying external air and oil through the rotary shaft member into the transfer pipe member and forcibly igniting after mixing with the solid fuel; A joint for preventing a kink between an air supply pipe for supplying air into the rotary shaft member and an oil supply pipe for supplying oil when the rotary shaft member is rotated; And Complete combustion of solid fuel pushed out by activating combustion by introducing air from the outside while receiving the solid fuel in combustion pushed by the solid fuel continuously supplied due to the rotation of the wing connected to the other side of the transfer pipe member. Solid fuel pyrolysis gas combustion burner device comprising a combustion tank provided for. The method of claim 1, wherein the combustion unit, An oil passage formed along a central axis of the rotating shaft member and connected to the oil supply pipe to guide the flow of external oil; An air channel inserted into the oil channel and fixed to the oil channel and connected to the air supply pipe to guide the flow of external air; A combustion chamber formed inside the other side of the transfer pipe member; A first flow hole formed in the air passage corresponding to the combustion chamber to guide air flow into the oil passage; A second flow hole formed in the oil passage so as to correspond to the first flow hole to guide oil flow into the combustion chamber together with air; A heating member formed on a circumferential surface of the rotating shaft member to warm air and oil in the transfer pipe member; And And an ignition member which is provided inside the combustion chamber and is ignited by heated air and oil by generating a spark by an external operation to induce combustion of the solid fuel primarily. The method of claim 2, The rotary shaft member is a solid fuel pyrolysis gas combustion burner device, characterized in that for forming an open hole opening the portion of the end toward the combustion tank, and equipped with a rotating fan that is naturally rotated by the air blown into the opening hole. The method of claim 2, wherein the joint, A ring member coupled to the rotary shaft member and rotated together with the rotary shaft member by an external force and communicating with both sides to insert the air supply pipe and the oil supply pipe; A ball bearing formed on a circumferential surface of the ring member; And And a housing connected to the ball bearing to rotate and stop with the air supply pipe and the oil supply pipe when the ring member is rotated, and to expose the air supply pipe and the oil supply pipe that are received inside through the ring member to the outside. Solid fuel pyrolysis gas combustion burner device. The combustion tank according to any one of claims 1 to 4, wherein the combustion tank, A first case having a nozzle communicating with the inner side and the outer side on the inner side to inject external air into the inside to activate combustion of the solid fuel; A second case connected to the outside of the first case so as to be spaced apart from the first case, and connected to a blower fan to store external air blown out by the nozzle between the first case; A third case connected to an outer side of the second case so as to be spaced apart from the second case so as to exchange heat with high temperature air inside the first case by injecting external air of high temperature to circulate the hot air into the air supply pipe ; And And a exhaust pipe inserted into the first, second and third cases to exhaust the gas generated in the first case. The method of claim 5, The nozzle is formed to protrude obliquely at an acute angle with the surface of the first case to improve the combustion rate of the solid fuel; The blower fan is connected to the air regulator to automatically adjust the amount of air blown; The first, second and third cases of solid fuel pyrolysis gas combustion burner apparatus, characterized in that to form a back. The method of claim 5, The first case is divided into two; The second case is divided to correspond to the first case; The third case is divided into corresponding to the second case, the solid fuel pyrolysis gas combustion burner device, characterized in that it is detachably bound with a flange facing the connecting portion. The method of claim 5, The transfer pipe member is provided with a transparent window to check the internal situation; The combustion tank inserts a toxic gas meter inside the exhaust pipe; The toxic gas meter is connected to the display window, the solid fuel pyrolysis gas combustion burner device, characterized in that for displaying a signal.

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