JP2524248Y2 - Incense burner - Google Patents

Description

[Detailed description of the invention]

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an incense burner in which incense is burned to generate incense smoke.

[0002]

2. Description of the Related Art Conventionally, incense burners for burning incense wood and incense to generate incense smoke to enjoy incense and to burn incense are known. It is a kind of burning incense by putting a kind of fire, etc., and it is necessary to prepare a fire separately before burning the incense, and if the burning time of incense becomes long, add or replace the fire Is required. In addition, as the fire becomes covered with ash over time and the heating efficiency becomes poor, it is necessary to remove the ash from time to time. Furthermore, after use, the fire had to be cleaned up.

[0003] Such preparation of a fire, addition of a fire,
Replacement or disposal of the fire was extremely troublesome in practice, and required much time and effort.

Therefore, the present applicant has previously proposed an incense burner that can easily ignite and extinguish a fire and that can perform incense burning continuously for a long time.

[0005] In this incense burner, however, the switch must be kept pressed until the incense or the incense is lit. Further, in order to adjust the gas ejection amount, there is a disadvantage that the main body has to be lifted and the adjustment handle at the bottom of the main body has to be rotated for adjustment.

[0006]

[Problem to be solved by the invention] This invention solves the problems seen in the conventional incense burner,
It is an object of the present invention to provide an incense burner in which ignition, continuous combustion, and fire extinguishing can be sequentially performed easily without the need to keep pressing a switch, and the gas flow rate can be easily adjusted.

[0007]

Means for Solving the Problems To solve the above-mentioned problems, a means adopted by the present invention is that a burner valve mechanism, a combustion dish mechanism, a fuel gas storage mechanism, and an ignition mechanism are arranged in the incense burner body. In an incense burner in which a heat-resistant member that causes red heat is disposed in an upper part of the burner valve, the incense burner includes an engaging element connected to an ignition switch of an ignition mechanism, and a cam groove formed in the incense burner main body. The cam groove includes a first engagement portion where the engagement element is located when the gas ignition is not operating, an ignition position where the engagement element is located when the gas is ignition state, and a second engagement section where the engagement element is located when the gas is continuously burning. The engaging element includes a first engaging portion, an ignition position portion, and a second engaging portion formed in the cam groove, which are movable in this order, and a stopping means for preventing reverse movement is provided in the cam groove. And ignite the flame, continuously burn and extinguish To so that the top of the heat-resistant member
A support member for placing and supporting incense is placed on the
Approved by seeing the heat-resistant material from the outside through the cough support member
It is characterized by the ability to work.

[0008]

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 shows an embodiment of the present invention, as shown in FIGS. 1 to 3, having a cylindrical main body (1) having upper and lower surfaces open. A burner valve mechanism (10), a combustion dish mechanism (30), a fuel gas storage mechanism (40), and an ignition mechanism (50) are provided, and these mechanisms are associated with each other as described later. While being assembled and assembled, it is assembled in the main body (1) by the mounting mechanism (3) in the main body. The upper surface of the main body (1) is closed by a detachable incense burner lid (2) having a number of small holes.

The burner valve mechanism (10) includes a burner valve (11) connected to the fuel gas storage mechanism (30) and a combustion cylinder located above the burner valve (11) with a slight gap. (12) is adopted, and a heat-resistant member (35) such as a nichrome wire or the like that is red-heated by the combustion flame is provided on the upper end of the combustion tube (12) in order to make the combustion flame easily visible. ) Is placed. The burner valve (11) has a burner nozzle (13), and when the burner nozzle (13) is lifted by a lever member (54),
Ejection of fuel gas is allowed.

As shown in FIG. 8, the burner nozzle (1
An operation having a neck insertion hole (16) which is rotatably disposed coaxially with 3) and which is provided on the outer periphery of a flow adjusting neck (15) for adjusting the flow rate of the burner valve and which rotates the flow adjusting neck (15). The member (17) is inserted. The outer surface of the flow rate adjusting neck (15) and the neck insertion hole (1) of the operating member (17).
Knurls that mesh with each other are engraved on the inner surface of 6), and both members rotate integrally by inserting a neck insertion hole (16) into the flow rate adjustment neck (15). At the other end of the neck insertion hole (16) of the actuating member (17), a projection (18) is continuously provided downward, and the projection (18) is a slit () opened at the center of the angle regulating member (20). 19)
Is slidably inserted into

The angle regulating member (20) has a protrusion (21) at one lower end, and is rotatably inserted into a small hole (22) opened in the main body. A claw piece (23) is connected to the other end of the angle regulating member (20), and a plurality of claw pieces (23) are formed below a claw piece engagement plate (24) vertically provided from a gas flow rate adjusting ring (26) described later. Is inserted into any one of the claw piece engaging portions (25). A plurality of claw engagement portions (25) of the claw engagement plate (24) are formed. This is for easily adjusting the gas ejection amount at the time of assembly.

The gas flow rate adjusting ring (26) is rotatably mounted on the substantially central outer periphery of the main body with the rotation axis of the flow rate adjusting neck (15) being the same as the rotation axis, and is rotated by rotation of the gas flow rate adjusting ring (26). The flow rate adjusting neck (15) of the burner valve (11) is rotated to adjust the flow rate of the fuel gas ejected from the burner valve (11). Scale (2) on the body (1) side
7) and arrow (28) on the side of gas flow control ring (26)
Are formed, and the amount of gas to be ejected can be adjusted using the scale (27) as a guide.

As shown in FIGS. 9 and 10, by rotating the gas flow rate adjusting ring (26), the angle regulating member (20) interlocked with the gas flow rate adjusting ring (26) is moved downward by one end of the projection (21). ) As an axis. The operation member (17) is rotated with the rotation of the angle regulating member (20), and the rotation of the operation member (17) is controlled by the angle regulating member (2).
Rotation is transmitted by the sliding motion of the projection (18) inserted into the slit (19) of (0).
The rotation angle of the operating member (17) is reduced by the sliding movement of the projection (18) along 9). As a result, the rotation angle (θ2) of the flow adjustment neck (15) becomes smaller than the rotation angle (θ1) of the gas flow adjustment ring (26). As described above, the rotation angle (θ2) of the flow adjustment neck (15) can be made smaller than the large rotation angle (θ1) of the gas flow adjustment ring (26). As a result, the flow adjustment of the flow adjustment neck (15) can be performed. Small rotation required for gas flow adjustment ring (2
6) Large rotation can be achieved, and the gas flow rate can be easily adjusted. The range of the rotation angle (θ1) of the gas flow adjusting ring (26) is regulated by the contact of the both sides of the claw engaging plate (24) with the stopper (94) formed in the main body (1).

As shown in FIG. 4, a combustion dish mechanism (30)
Are positioned above the combustion tube (12), a semicircular reflector (31) is fastened inside the main body (1) by screws (32), and the combustion tube (12) A heat-resistant member (35) is arranged at the upper end of the frame by a mounting frame (36).
The mounting frame (36) is connected to the reflector (3) via a pedestal (37).
It is fixed to the inner bottom of 1). A wire mesh (3) whose periphery is fixed to a ring-shaped holding plate (33) above the reflecting plate (31)
4) is placed, and a desired incense tree or incense powder is placed on the wire mesh (34) and burned. The glowing heat-resistant member (35) can be easily visually recognized from the outside due to the transparency of the wire mesh (34), and the radiated light of the glowed heat-resistant member is reflected to the outside by the reflection plate (31). It is easy to check the ignition from the outside. The pedestal (37) needs to be electrically insulated from the metal reflector (31),
For example, it is formed of an electrically insulating material such as ceramic.
The structure of the combustion dish mechanism (30) is not limited to the structure on which the wire mesh (34) is placed. For example, a mica plate whose periphery is fixed to a ring-shaped holding plate may be provided, or heat-resistant glass may be used instead of the mica plate.

As shown in FIG. 3, the fuel gas storage mechanism (40) has a pressure-resistant cylindrical tank (45).
And an injection valve (42) mounted at the center of the bottom surface (41) of the tank (45). The bottom surface (41) of the tank (45) is formed in a mortar shape toward the injection valve mounting hole located at the center, which improves the pressure resistance of the tank (45) against the pressure in the tank (45). To do that. The injection valve (42) has substantially the same structure as the injection valve of a conventionally known smoking lighter, and connects an injection nozzle (44) normally biased by a spring in a valve closing direction to a refill cylinder. When pushing in with a beak, the valve can be opened and fuel gas can be injected and filled from the cylinder into the tank (45). Further, when the injection nozzle (44) is pushed in, the valve is opened, and the fuel gas in the tank can be discharged to the outside.

As shown in FIG. 3, an injection amount regulating cylinder (43) is provided upright around the injection valve (42). The injection amount regulating cylinder (43) is connected to an injection nozzle (44) of an injection valve (42).
, And protrudes toward the inside of the tank (45), and the injection amount of fuel gas is regulated to the inner end level of the injection amount regulating cylinder (43). Therefore, the space from the inner end level of the injection amount regulating cylinder (43) to the inner surface of the bottom wall remains as a space that is not filled with fuel gas, and the tank (4)
5) The fuel gas can be prevented from being overfilled.

The ignition mechanism (50) includes a pressing member (53) that comes into contact with the piezoelectric generating unit (51) and the movable portion (52) of the unit (51), and is located inside the pressing member (53). A lever member (54) to be slid, an ignition switch (55) slidably disposed on the outer surface of the main body and abutting on one end of the pressing member (53), and a pedestal (56) connected to the ignition switch (55). And a cam groove (57) into which a part of the engaging element (56) is inserted.

As shown in FIG. 5, the pressing member (53)
Three rectangular openings are provided in the longitudinal direction of a rectangular metal plate, and both sides of the metal plate are vertically raised to form a concave cross section. The three openings formed in the lower surface having the concave cross section include a first opening (85) into which the support portion (61) and the lead wire (64) formed in the main body attachment mechanism (3) are inserted. From the second opening (86) into which the burner nozzle (13) and the earth plate (65) are inserted, and from the third opening (87) into which the fixing part (83) of the main body mounting mechanism (3) is inserted. Become.

The longitudinal ends of the pressing member (53) and the respective openings are connected by four connecting portions, and the rising portions (89) and (89) on both sides are connected to each other by the connecting portions. The first connecting portion is an ignition switch contact piece (79) that contacts the ignition switch (55). The second connecting portion is a piezoelectric generation unit contact piece (80) that comes into contact with the movable portion (52) of the piezoelectric generation unit (51). The third connecting portion is a mounting piece (78) to be mounted on the pressing member mounting portion (59) formed on the main body mounting mechanism (3). The fourth connecting portion is a contact piece (8) of a lever member (54) placed inside.
A contact portion (68) that comes into contact with 2). Lever member (5
The mounting piece (78) located below 4) is mounted on a supporting portion (60) formed integrally with the main body mounting mechanism (3), and the mounting piece (78) is used as a fulcrum. As leverage.

The lever member (5) is provided inside the pressing member (53).
4) is placed, and the lever member (54) is provided with two rectangular openings in the longitudinal direction of the rectangular metal plate, and both sides of the metal plate are vertically raised to form a concave cross section. Lever member (5
4) is formed to have a dimension smaller than the pressing member (53) in both the overall length and the width, and is arranged inside the concave portion of the pressing member (53).
The lever member (54) has a first opening (91) into which the lead wire (64) and the ground plate (65) are inserted, and a fixing part (83) formed on the main body mounting mechanism (3). Two openings of the second opening (92) to be inserted are formed.

Both ends in the longitudinal direction of the lever member (54) and between the first opening (91) and the second opening (92) are connected by connecting portions, and the connecting portions connect the rising portions (9) on both sides.
3) (93) are connected to each other. The first connecting portion is a mounting piece (81) mounted on a support portion (61) formed in the main body mounting mechanism (3). The second connection is a push-up piece (63) connected to the burner nozzle (13). Third
Is a contact piece (82) that comes into contact with the contact part of the pressing member (53) located outside the lever member (53). The pressing member (53) mounted on the mounting member (88) and the lever member (54) mounted inside the pressing member (53) are
The screw is fixed to the fixing portion (83) by 2), and the falling off is prevented. The lever member (54) has a mounting piece (81) provided at one end thereof mounted on a contact portion (84) of the support portion (61). Make

When the ignition switch (55) is depressed, the ignition switch contact piece (79) of the pressing member (53) is pushed down, and the contact portion between the support portion (60) and the mounting piece (78) is used as a fulcrum. The edge swings. Accordingly, the pressing member (5
The contact piece (8) of the lever member (54) located inside the 3)
The contact portion (68) comes into contact with 2), and the lever member (54) swings upward with the contact piece (82) as a fulcrum with the swing of the pressing member (53). The upward swing of the lever member (54) causes the burner nozzle (1) connected to the push-up piece (63).
3) is lifted and the burner valve (11) opens,
The ejection of the combustion gas is allowed.

The piezoelectric generating unit (51) incorporates a striker and a piezoelectric element inside a fixed side cylinder and a movable side cylinder which are relatively slidably combined with each other. It is operated to strike a piezoelectric element with a striker to generate piezoelectricity, and has been widely used as an ignition means for smoking lighters and gas appliances.

The high voltage side of the piezoelectric generating unit (51) is connected to a heat-resistant member (35) made of a nichrome wire via a lead wire (64), and the generated piezoelectric voltage is applied to the heat-resistant member (35). Spark discharge occurs between the lower end and the upper end of the combustion tube (12), and ignites a mixture of fuel gas and air rising from the combustion tube (12). The ground plate (65) is inserted and locked in the main body while bringing the lower horizontal portion (66) into contact with the bottom portion (67) of the piezoelectricity generating unit (51). The upper side of the ground plate (65) is in contact with the reflector (31) connected to the combustion tube (12) of the combustion dish mechanism (30), and connects the combustion tube (12) to the high-pressure side lead wire (64). By facing the heat-resistant member (35) to be ignited, ignition by a discharge spark is enabled.

The ignition switch (55) is slidably disposed on a guide member (69) disposed in the main body (1), and comes into contact with the contact piece (78) of the above-mentioned pressing member (53). A rotatable engaging element (56) is connected to the lower side of the back surface of the ignition switch (55), and the engaging element (56) moves in a cam groove (57) formed in the main body.

As shown in FIG. 12, the cam groove (57) is
Formed on the mounting mechanism (3) inside the main body, the engaging element (5)
6) is a first engagement portion (70) located in a gas ignition non-operation state, that is, a switch OFF state, an ignition position portion (71) located in an ignition state, that is, a switch ON state,
A second engaging portion (72) located in a continuous combustion state;
A plurality of steps (73) for enabling the engagement element (56) to move in the cam groove in this order and preventing backward movement.
(74), (76) and (77) are formed.

As shown in FIG. 21, the first step (73)
Is formed in the middle of the cam groove communicating from the first engaging portion (70) to the ignition position portion (71), and is located one step deeper than the first engaging portion (70). The second step (74) is located at the ignition position (7
1) It is formed in the middle of the cam groove leading to the second engagement portion (72), and is located one step deeper than the ignition position portion (71). The third step (76) is located immediately before the folded portion (75) in the middle of the cam groove communicating from the second engaging portion (72) to the first engaging portion (70). The fourth step (77) has a folded portion (7
5) It is formed in the middle of the cam groove leading to the first engaging portion (70), and is located one step deeper than the folded portion (75). Therefore, the engaging element (56) moves without returning in the cam groove.

When the ignition switch (55) is actuated, the engaging element (56) moves in the cam groove (57) without reversing, and interlocks with the ignition switch (55) as described above. Since the pressing member (53) and the lever member (54) are operated in conjunction with the operation (56), the piezoelectric generation unit (51) and the burner nozzle (13) are operated to ignite, continuously burn and extinguish the gas. Are sequentially achieved. These operations will be described in detail below. Figures 13-2
As shown in FIG. 0, in a non-ignited state, that is, in a switch OFF state, the engaging element (56) connected to the ignition switch (55) is engaged with the first engaging portion (70) in the cam groove (57). positioned. When the ignition switch (55) is depressed at the time of ignition, the ignition switch (55) is returned to the folded portion (75) by the fourth step (77) formed between the folded portion (75) and the first engagement portion (70). Without fail, it surely enters the ignition position (71). The ignition part position (71)
With the movement of the pressing member (53), the pressing member (53) connected to the engaging element (56) is leveraged with the support part (60) as a fulcrum, and one end of the pressing member (53) is lowered, and the piezoelectricity generating unit ( 5
In order to press the movable portion (52) of 1), piezoelectricity is generated, and the other end of the pressing member (53), that is, the contact portion (68) swings upward, and one end of the lever member (54). Is pushed up with the support (61) as a fulcrum. Lever member (54)
The burner nozzle (13) associated with this by the upward movement
Rises and gas gushes and ignites.

After the ignition, when the pressing force of the ignition switch (55) is released, the engaging element (56) is moved to the cam groove (57) via the pressing member (53) by the spring elasticity in the piezoelectricity generating unit (51). It moves from the ignition part position (71) inside,
Since the first step (73) for preventing reverse movement is formed, the movement of the engaging element (56) does not return to the first engaging portion (70) in the cam groove (57), and the second step (73) does not return. It is securely inserted into the engaging portion (72) and locked. In this state, the engaging element (56) is locked slightly below the first engaging portion (70) in the switch OFF state, and pushes the associated lever member (54) up the burner nozzle (13). In order to maintain the valve open state, the outflow of gas is continued, and the ignition state is maintained.

At the time of extinguishing the fire, when the ignition switch (55) is depressed again, the engagement element (56) located in the second engagement part (72) is brought into contact with the second engagement part (72) and the ignition position part. Due to the second step (74) formed between the turning position (71) and the second step (74), the turning step (75) is performed without returning to the ignition position (71). When the pressing force of the ignition switch (55) is released after the movement to the folded portion (75), the engaging element (5) is released due to the spring elasticity of the piezoelectricity generating unit (51).
6) moves the folded portion (75) upward and returns to the first engaging portion (70). At this time, the folded portion (75) and the second
Third step (76) formed between engagement portion (72)
Accordingly, the engaging element (56) does not return to the second engaging portion (72). The engagement element (56) is a first engagement part (70).
As the lever member (54) returns and the burner nozzle (13) descends, the supply of gas is stopped,
Fire extinguished.

[0031]

[Operation] At the time of ignition, a piezoelectric generation unit (5
The ignition switch (55) associated with 1) is depressed and activated. When the ignition switch (55) is pressed, the pressing member (5) is pressed.
When one end of 3) is lowered, high voltage piezoelectricity is generated and spark discharge is performed, and at the same time, the lever member (54) is lifted and the associated burner valve (11) is opened to eject fuel gas. Ignite. When the pressing force of the ignition switch (55) is released, the engaging element (56) moves to and engages with the second engaging portion (72) in the cam groove (57), and the return of the lever member is prevented, and the burner nozzle is stopped. In order to maintain the pushed-up valve open state, the outflow of gas is continued, and the ignition state is maintained.
In extinguishing the fire, when the ignition switch (55) is depressed, the ignition switch (55) located at the second engagement portion (72) is depressed.
When the ignition switch (55) is released, the engagement member (56) returns to the first engagement portion (70), so that the lever member (54) is moved. Since the burner nozzle (13) returns and descends, the gas supply is stopped and the fire is extinguished.

The fuel gas ejected from the upper end of the burner nozzle (13) flows into the fuel cylinder (12) located above the burner nozzle (13). The burner nozzle (1
Air is sucked from the gap between 3) and the combustion tube (12) and mixed with the fuel gas, rises in the combustion tube (12), and is ignited by the discharge spark and burns. Heat-resistant material (3
Since 5) is glowed red, the glowing heat-resistant member (35) can be easily visually recognized by the transparency of the wire mesh (34). Further, by reflecting the radiated light of the heat-resistant member (35) that has become red-heated, ignition can be confirmed even from a distant place. After ignition, the desired fragrance is placed on the wire mesh (34) and heated,
The incense burner lid (2) can be fitted to enjoy incense smoke rising from the incense burner lid (2).

The burner valve (11) is rotated by rotating the gas flow rate adjusting ring, so that the flow rate of the fuel gas can be adjusted. Tank (4
The injection of fuel gas into 5) is performed by connecting a replenishing cylinder to the injection nozzle (44) of the injection valve (42) on the bottom surface (41) of the main body.

[0034]

According to the incense burner of the present invention, by arranging the cam means on the main body, the gas combustion is maintained even when the finger is released after the ignition, and the switch is kept pressed until the incense or the incense is ignited. There is no necessity, and the gas flow rate can be easily adjusted without lifting the incense burner body. Further, the ignition state can be visually recognized from the outside such as a wire net, and the ignition of the ignition can be confirmed by reflecting the radiated light of the heat-resistant member (35), which has become red, to the outside.

[Brief description of the drawings]

FIG. 1 is an external perspective view.

FIG. 2 is an external perspective view of a state where a censer lid is removed.

FIG. 3 is a longitudinal sectional view of the incense burner main body.

FIG. 4 is an exploded perspective view of a combustion dish mechanism.

FIG. 5 is an exploded perspective view of a burner valve mechanism.

FIG. 6 is a perspective view showing the operation of a pressing member and a lever member.

FIG. 7 is a sectional view taken along the line AA of FIG. 6;

FIG. 8 is an exploded perspective view of a gas flow adjusting ring.

FIG. 9 is an operation diagram of a gas flow rate adjusting ring.

FIG. 10 is an operation diagram of a gas flow rate adjusting ring.

FIG. 11 is an exploded perspective view of an ignition switch unit.

FIG. 12 is an exploded perspective view of a cam groove mechanism.

FIG. 13 shows a state before ignition.

FIG. 14 is a diagram showing a state before ignition.

FIG. 15 is a diagram showing an ignition state.

FIG. 16 shows an ignition state.

FIG. 17 shows the operation of the switch.

FIG. 18 is a diagram showing the operation of a switch.

FIG. 19 is a longitudinal sectional view showing a combustion state.

FIG. 20 is a longitudinal sectional view showing a combustion state.

FIG. 21 is a front view of a cam groove.

FIG. 22 is a sectional view of a cam groove.

[Explanation of symbols]

 (1) Main body (2) Incense burner lid (3) Mounting mechanism (10) Burner valve mechanism (11) Burner valve (12) Combustion cylinder (13) Burner nozzle (15) Flow rate adjustment neck (16) Neck insertion hole ( 17) Actuating member (18) Projection (19) Slit (20) Angle regulating member (21) Projection (22) Small hole (23) Claw piece (24) Claw piece engagement plate (25) Claw piece engagement part (26) Gas flow adjusting ring (27) Scale (28) Arrow (30) Combustion dish mechanism (31) Reflector (32) Screw (33) Holding plate (34) Wire mesh (35) Heat resistant member (36) Mounting frame (37) Pedestal (40) Fuel gas storage mechanism (41) Bottom surface (42) Injection valve (43) Injection amount regulating cylinder (44) Injection nozzle (45) Tank (50) Ignition mechanism (51) Piezoelectric generation unit (52) movable part (53) Pressing member (54) Lever member (55) Ignition switch (56) Engagement element (57) Cam groove (59) Pressing member mounting portion (60) Support portion (61) Support portion (62) Holding plate (63) ) Push-up piece (64) Lead wire (65) Ground plate (66) Lower horizontal part (67) Bottom part (68) Contact part (69) Guide member (70) First engaging part (71) Ignition position part (72) ) 2nd engaging part (73) 1st level difference (74) 2nd level difference (75) Folding part (76) 3rd level difference (77) 4th level difference (78) Mounting piece (79) Ignition switch Contact piece (80) Piezoelectric generating unit contact piece (81) Mounting piece (82) Contact piece (83) Fixing member (84) Contact part (85) First opening (86) Second Opening (87) Third opening (88) Mounting member (89) Rise ( 1) a first opening (92) a second opening (93) rising portion (94) Stopper

Claims (7)

(57) [Scope of request for utility model registration] 1. An incense burner in which a burner valve mechanism, a combustion dish mechanism, a fuel gas storage mechanism, and an ignition mechanism are combined and associated with each other in an incense burner main body, and a heat-resisting member that causes red heat is disposed above the burner valve. In the above, there is an engaging element connected to the ignition switch of the ignition mechanism, and a cam groove formed in the incense burner main body, the cam groove is a first engaging portion located when the engaging element is in the gas ignition non-operation state, An ignition element provided with an ignition element positioned in a gas ignition state and a second engagement element arranged in a gas continuous combustion state, wherein the engagement element has a first engagement part formed in a cam groove; position unit, the second engagement portion is movable in this order, a blocking means for preventing the reversal of movement are arranged in said cam groove, the ignition flame, continuous combustion, as may successively perform fire extinguishing, the Place and support incense on top of heat-resistant member
Heat-resistant material that has been redistributed by combustion flame
Characterized in that the incense burner is visible from outside through the support member . 2. An incense burner according to claim 1, wherein said blocking means for blocking backward movement of said engaging element comprises a step. 3. A supporting support member which incense which is arranged above the heat-resistant member is placed support is a wire mesh, the heat-resistant member which is red hot by the combustion flame was visible from the outside it through the wire mesh The incense burner according to claim 1, characterized in that: 4. An arc-shaped reflecting plate is arranged in a combustion dish mechanism located in alignment with a burner valve mechanism in an incense burner main body so as to reflect radiated light of a heat-resistant member that has become red-hot. The incense burner according to any one of claims (1), (2) and (3). 5. A gas flow adjusting ring is rotatably arranged on the outer periphery of the incense burner main body, and the gas flow adjusting ring and an adjusting member of a burner valve are connected to adjust a gas flow rate. And incense burner. 6. The incense burner according to claim 5, wherein the burner valve and the gas flow adjusting ring are connected via an operating member and an angle adjusting member. 7. A lever member having an ignition mechanism connected to a burner nozzle located in a burner valve mechanism of the incense burner body;
It has a pressing member associated with the lever member, an ignition switch and a piezoelectric generating unit in contact with the pressing member, and one end of the lever member is placed on a support portion to form a fulcrum, and a burner is provided at a substantially central portion. The nozzle is connected, the pressing member is located below the lever member, and a mounting piece is formed substantially at the center of the pressing member,
The mounting piece is swingable about a fulcrum, one end of the pressing member contacts the ignition switch, and the other end contacts the lever member,
An opening into which the burner nozzle is inserted is formed in the vicinity of the mounting piece in the substantially central part of the pressing member, and by operating the ignition switch,
The lever member is rocked in cooperation with the rocking of the pressing member, and the burner nozzle connected to the lever member is opened to ignite the flame,
3. The burner nozzle according to claim 1, wherein the lever is prevented from returning and the burner nozzle is kept open in a state where the engaging element is located at the second engaging portion in the cam groove. Incense burner.