JPH0722254U - Incense burner - Google Patents

Abstract

(57) [Abstract] [Purpose] The present invention solves the problems found in conventional incense burners, and enables easy ignition, continuous burning, and extinguishing of a fragrant tree or matcha without the need to press and hold the switch. It is intended to provide an incense burner that can be sequentially performed and can easily adjust the gas flow rate. [Structure] In a incense burner in which a burner valve mechanism unit, a combustion dish mechanism unit, a fuel gas storage mechanism unit, and an ignition mechanism unit are associated with each other in the incense burner body, and a heat-resistant member that turns into red heat is arranged above the burner valve, It has an engaging element connected to an ignition switch of an ignition mechanism section, and a cam groove formed in the incense burner main body, and the cam groove is a first engaging section and an engaging element located when the engaging element is in a gas ignition non-operating state. Includes an ignition position portion located in the gas ignition state, and an engagement element second engagement portion located in the gas continuous combustion state, wherein the engagement element is a first engagement portion and an ignition position portion formed in the cam groove. The second engaging portion is movable in this order, and blocking means for blocking the reverse movement of the movement is arranged in the cam groove so that flame ignition, continuous combustion, and fire extinguishing can be sequentially performed. And

Description

[Detailed description of the device]

[0001]

[Industrial applications]

 The present invention relates to an incense burner which burns an incense tree to generate incense smoke.

[0002]

[Prior art]

 Conventionally, there is a known incense burner for burning fragrance and burning incense to generate scent and smoke, and to enjoy aroma and incense.However, in the known incense burner, ash is put in the furnace body to generate a charcoal fire. Since it is like putting in and burning incense, it is necessary to separately prepare a fire type prior to burning the incense, and when the incense burning time becomes long, it is necessary to add or replace the fire type. . Also, since the fire species were covered with ash over time and the heating efficiency deteriorated, it was necessary to remove the ash from time to time. Furthermore, after use, it was necessary to clean up the fire.

[0003] Such preparation of a fire type, addition, replacement of a fire type, or disposal of a fire type is actually extremely troublesome and requires much labor.

Therefore, the present applicant previously proposed an incense burner capable of easily igniting and extinguishing a fire and continuously burning for a long time.

However, in this incense burner, the switch has to be continuously pushed until the fragrance tree or the incense is ignited. In addition, in order to adjust the amount of gas blown out, the main body had to be lifted and the adjustment handle at the bottom of the main body had to be rotated for adjustment.

[0006]

[Problems to be solved by the device]

 This invention solves the problems found in the conventional incense burner, and when igniting a perfume or matcha, it is possible to easily perform ignition, continuous combustion and extinguishment sequentially without the need to press and hold the switch. We will provide an incense burner that can be easily adjusted.

[0007]

[Means for Solving the Problems]

 In order to solve the above problems, the means adopted by the present invention is a burner valve in which a burner valve mechanism section, a combustion dish mechanism section, a fuel gas storage mechanism section, and an ignition mechanism section are associated with each other in the incense burner body. In the incense burner in which a heat-resistant member that turns red heat is arranged on the upper part of the incense burner, there is an engaging element connected to the ignition switch of the ignition mechanism section, and a cam groove formed in the incense burner body. A first engaging portion located when the gas ignition is inactive, an ignition position portion where the engaging element is located during the gas ignition state, and a second engaging portion where the engaging element is located during the gas continuous combustion state; Is arranged in the cam groove so that the first engaging portion, the ignition position portion, and the second engaging portion formed in the cam groove can be moved in this order, and blocking means for preventing reverse movement is arranged in the cam groove. The feature is that the flame can be ignited, continuously burned, and extinguished in sequence. To.

[0008]

【Example】

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

The burner valve mechanism section (10) is a burner valve (11) connected to the fuel gas storage mechanism section (30) and a combustion chamber located above the burner valve (11) with a slight gap. A Bunsen burner type combustion system consisting of a cylinder (12) is used, and in order to make it easier to see the combustion flame, the upper end of the combustion cylinder (12) is made of a heat-resistant material such as nichrome wire that turns red due to the combustion flame. The member (35) is arranged. The burner valve (11) has a burner nozzle (13), and when the burner nozzle (13) is lifted by the lever member (54), ejection of fuel gas is allowed.

As shown in FIG. 8, the flow rate adjusting neck portion (15) is rotatably arranged coaxially with the burner nozzle (13) and is provided on the outer periphery of the flow rate adjusting neck portion (15) for adjusting the flow rate of the burner valve. An actuating member (17) having a neck insertion hole (16) for effecting rotation of the is inserted. The outer surface of the flow adjusting neck (15) and the inner surface of the neck inserting hole (16) of the actuating member (17) are engraved with knurls that mesh with each other, and the flow adjusting neck (15) has a neck inserting hole. By inserting (16), both members rotate integrally. At the other end of the neck insertion hole (16) of the actuating member (17), a protrusion (18) is continuously provided downward, and the protrusion (18) is a slit (opened at the center of the angle regulating member (20) ( It is slidably inserted in 19).

The angle regulation member (20) has a protrusion (21) at one end lower side, 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 regulation member (20), and a plurality of claw pieces formed below the claw piece engagement plate (24) hung from a gas flow rate adjusting ring (26) described later are provided. It is inserted into either one of the claw piece engaging portions (25). A plurality of claw piece engaging portions (25) of the claw piece engaging plate (24) are formed. This is to facilitate adjustment of the gas ejection amount during assembly.

The gas flow rate adjusting ring (26) is rotatably attached to the outer periphery of the center of the main body such that the rotation axis of the flow rate adjusting neck (15) is the same as the rotation axis, and the gas flow rate adjusting ring (26) is rotated. By rotating the flow rate adjusting neck portion (15) of the burner valve (11), the flow rate of the fuel gas ejected from the burner valve (11) is adjusted. A scale (27) is formed on the body (1) side and an arrow (28) is formed on the gas flow rate adjusting ring (26) side, and it is possible to adjust the amount of gas to be ejected using the scale (27) as a guide. .

As shown in FIGS. 9 and 10, when the gas flow rate adjusting ring (26) is rotated, the angle regulating member (20) interlocking with the gas flow rate adjusting ring (26) causes the protrusion (21 ) As the axis. The actuating member (17) is turned along with the turning of the angle regulating member (20), and the turning of the actuating member (17) is caused by the protrusion inserted into the slit (19) of the angle regulating member (20). Since the rotation is transmitted by the sliding motion of (18), the rotation angle of the actuating member (17) is reduced by the sliding movement of the protrusion (18) along the slit (19). As a result, the rotation angle (θ ₂ ) of the flow rate adjusting neck portion (15) becomes smaller than the rotation angle (θ ₁ ) of the gas flow rate adjusting ring (26). In this way, the turning angle (θ ₂ ) of the flow rate adjusting neck (15) can be made smaller with respect to the large turning angle (θ ₁ ) of the gas flow rate adjusting ring (26), and as a result, the flow rate adjusting neck (15) The minute rotation necessary for adjusting the flow rate can be achieved by the large rotation of the gas flow rate adjusting ring (26), which facilitates the adjustment of the gas flow rate. The range of the rotation angle (θ ₁ ) of the gas flow rate adjusting ring (26) is regulated by the stopper (94) formed in the main body (1) contacting both sides of the claw piece engaging plate (24). .

As shown in FIG. 4, the combustion dish mechanism section (30) is aligned and positioned above the combustion tube (12), and a semi-circular reflector (31) is provided in the main body (1). ) A screw (32) is tightened inside, and a heat-resistant member (35) is arranged on the upper end of the combustion tube (12) by a mounting frame (36). The mounting frame (36) is fixed to the inner bottom portion of the reflection plate (31) via the pedestal (37). A wire net (34) having a peripheral edge fixed to a ring-shaped holding plate (33) is placed on the upper part of the reflection plate (31), and a desired fragrance or perfume is placed on the wire net (34), To burn. Due to the transparency of the wire mesh (34), the heat-resistant member (35) that has become red-heated can be easily viewed from the outside, and the radiant light of the heat-resistant material that has become red-heated is reflected to the outside by the reflector (31). It becomes easier to confirm the ignition from the outside. The pedestal (37) needs to be electrically insulated from the metal reflection plate (31) and is made of an electrically insulating material such as ceramic. The combustion dish mechanism section (30) is not limited to the structure in which the wire net (34) is placed. For example, a mica plate whose peripheral edge is fixed to a ring-shaped holding plate may be arranged, or heat-resistant glass may be used instead of the mica plate.

As shown in FIG. 3, the fuel gas storage mechanism part (40) is mounted in the center of a bottom surface (41) of the tank (45) and a cylindrical tank (45) having pressure resistance. And an injection valve (42). The bottom surface (41) of the tank (45) is shaped like a mortar, facing the injection valve mounting hole located in the center, and this makes the pressure resistance of the tank (45) against the pressure in the tank (45). This is to improve. The injection valve (42) has substantially the same structure as the injection valve of a conventionally known smoking lighter, and the injection nozzle (44), which is always biased by a spring in the valve closing direction, is used as a refill cylinder. When pushing in with a connecting beak, it is possible to open the valve and inject fuel gas from the cylinder into the tank (45). Also, when the injection nozzle (44) is pushed in, the valve is opened, and the fuel gas in the tank can be released to the outside.

As shown in FIG. 3, an injection amount regulating cylinder (43) is provided upright around the outside of the injection valve (42). The injection amount regulating cylinder (43) is higher than the position of the injection nozzle (44) of the injection valve (42) and protrudes into the tank (45), and the inner end of the injection amount regulating cylinder (43). The amount of fuel gas injected is regulated to the level. 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 it is possible to prevent the fuel gas from overfilling the tank (45).

The ignition mechanism part (50) is located inside the pressing member (53) and the pressing member (53) that comes into contact with the piezoelectric generating unit (51) and the movable part (52) of the unit (51). A lever member (54), an ignition switch (55) slidably arranged on the outer surface of the body and abutting on one end of the pressing member (53), and an engagement element (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) is provided with three rectangular openings in the longitudinal direction of a rectangular metal plate, and both sides of the metal plate are raised vertically to form a concave section. To do. The three openings that are opened on the lower surface of the concave section are the first opening (85) into which the support portion (61) and the lead wire (64) formed in the main body attachment mechanism portion (3) are inserted. , A second opening (86) into which the burner nozzle (13) and the ground plate (65) are inserted, and a third opening (87) into which the fixing portion (83) of the main body mounting mechanism (3) is inserted. Consists of.

The two ends of the pressing member (53) in the longitudinal direction and the openings are connected by four connecting portions, and the rising portions (89) (89) on both sides are connected 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 force generating unit contact piece (80) that contacts the movable portion (52) of the piezoelectric force generating unit (51). The third connecting portion is a mounting piece (78) mounted on the pressing member mounting portion (59) formed on the main body mounting mechanism portion (3). The fourth connecting portion is an abutting portion (68) that abuts the abutting piece (82) of the lever member (54) placed inside. The placing piece (78) located below the lever member (54) is placed on the supporting portion (60) integrally formed with the main body attachment mechanism section (3), and the placing piece (78) ) Is used as a fulcrum for lever action.

A lever member (54) is placed inside the pressing member (53), and the lever member (54) is provided with two rectangular openings in the longitudinal direction of a rectangular metal plate, and Both sides are raised vertically to form a concave cross section. The lever member (54) is formed in a size smaller than the pressing member (53) in both length and width, and is arranged inside the recess 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 portion (83) formed on the body mounting mechanism portion (3). Two openings of the second opening (92) to be inserted are formed.

Both ends of the lever member (54) in the longitudinal direction and the first opening (91) and the second opening (92) are connected by a connecting portion, and the rising portions (93) on both sides are connected by the connecting portion. ) (93) are connected to each other. The first connecting portion is a mounting piece (81) mounted on a support portion (61) formed on the main body mounting mechanism portion (3). The second connecting portion is a push-up piece (63) connected to the burner nozzle (13). The third connecting portion is an abutting piece (82) that abuts the abutting portion of the pressing member (53) located outside the lever member (53). The pressing member (53) placed on the placing member (88) and the lever member (54) placed inside thereof are screwed to the fixing portion (83) by the holding plate (62) and fall off. Is blocked. The lever member (54) has a mounting piece (81) provided at one end thereof mounted on the abutting portion (84) of the supporting portion (61). Make

By depressing the ignition switch (55), the ignition switch contact piece (79) of the pressing member (53) is pressed down, and the contact portion of the support portion (60) and the mounting piece (78) is used as a fulcrum. The other end swings. Along with this, the contact portion (68) contacts the contact piece (82) of the lever member (54) located inside the pressing member (53), and the lever member (53) swings and the lever member (53) swings. 54) swings upward with the contact piece (82) as a fulcrum. By swinging the lever member (54) upward, the burner nozzle (13) connected to the push-up piece (63) is lifted, the burner valve (11) is opened, and the injection of combustion gas is allowed. It

The piezoelectricity generating unit (51) has a striking element and a piezoelectric element incorporated inside a fixed-side tubular body and a movable-side tubular body, 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 generation unit (51) is connected to the heat-resistant member (35) made of a nichrome wire via the lead wire (64), and the generated piezoelectricity is generated by the heat-resistant member (35). Spark discharge occurs between the lower end and the upper end of the combustion tube (12), and the mixture of fuel gas and air rising from the combustion tube (12) is ignited. The ground plate (65) is inserted and locked in the main body while the lower horizontal part (66) is in contact with the bottom part (67) of the piezoelectricity generating unit (51). The upper side of the earth plate (65) is in contact with the reflector plate (31) connected to the combustion tube (12) of the combustion dish mechanism section (30), and the combustion tube (12) is connected to the lead wire (64) on the high pressure side. By facing the heat-resistant member (35) to be connected, it is possible to ignite by a discharge spark.

The ignition switch (55) is slidably arranged on a guide member (69) arranged in the main body (1) and abuts on the abutment piece (78) of the pressing member (53). A rotatable engagement element (56) is connected to the lower side of the back surface of the ignition switch (55), and the engagement element (56) moves in a cam groove (57) formed in the main body.

As shown in FIG. 12, the cam groove (57) is formed in the mounting mechanism section (3) inside the main body, and the engaging element (56) is located when the gas ignition is not operated, that is, the switch is OFF. The first engagement portion (70), the ignition position portion (71) located in the ignition state, that is, the switch ON state, and the second engagement portion (72) located in the continuous combustion state, are arranged in the cam groove in this order. The engaging element (56) is made movable and a plurality of steps (73), (74), (76), (77) are formed to prevent reverse movement.

As shown in FIG. 21, the first step (73) is formed in the middle of the cam groove leading from the first engaging portion (70) to the ignition position portion (71), and the first engaging portion (70) is formed. ) One step deeper than The second step (74) is formed in the middle of the cam groove leading from the ignition position portion (71) 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-back portion (75) in the middle of the cam groove that leads from the second engagement portion (72) to the first engagement portion (70). The fourth step (77) is formed in the middle of the cam groove that leads from the folded-back portion (75) to the first engagement portion (70) and is located one step deeper than the folded-back portion (75). Therefore, the engagement element (56) moves in the cam groove without returning.

When the ignition switch (55) is operated, as described above, the engagement switch (55) is interlocked with the engagement switch (55) so that the engagement element (56) moves in the cam groove (57) without returning. Since the pressing member (53) and the lever member (54) are operated in conjunction with 56), the piezoelectric electricity generating unit (51) and the burner nozzle (13) are operated, and gas ignition / continuous combustion / extinction is performed. Are achieved in sequence. These operations will be described in detail below. As shown in FIGS. 13 to 20, in a non-ignition state, that is, in a state in which the switch is OFF, the engagement element (56) connected to the ignition switch (55) has the first engagement portion (56) in the cam groove (57). It is located at 70). When the ignition switch (55) is pressed down during ignition, the fourth step (77) formed between the folded-back portion (75) and the first engagement portion (70) causes it to return to the folded-back portion (75). Enter the ignition position (71) without fail. Along with the movement to the ignition part position (71), the pressing member (53) connected to the engaging element (56) levers the supporting part (60) as a fulcrum, and one end of the pressing member (53) is moved. Since it descends and presses the movable part (52) of the piezoelectricity generating unit (51), piezoelectricity is generated and the other end of the pressing member (53), that is, the contact part (68) swings upward. Then, one end of the lever member (54) is pushed up with the support portion (61) as a fulcrum. By the upward movement of the lever member (54), the burner nozzle (13) associated therewith rises and gas is ejected and ignited.

After the ignition, when the pressing force of the ignition switch (55) is released, the spring elasticity in the piezoelectricity generating unit (51) causes the engaging element (56) to move the cam groove (57) through the pressing member (53). Although it moves from the ignition part (71) in the inside, the first step (73) for preventing the backward movement is formed, so the movement of the engaging element (56) is the first in the cam groove (57). Without returning to the engaging part (70), the second engaging part (72) surely enters and is locked. In this state, the engaging element (56) is locked slightly below the first engaging portion (70) in the switch OFF state, and pushes up the lever member (54) which is linked to the burner nozzle (13). Since the valve is kept open, the outflow of gas is continued and the ignition state is maintained.

When extinguishing the fire, when the ignition switch (55) is pressed down again, the engaging element (56) positioned in the second engaging portion (72) and the second engaging portion (72) and the ignition position Due to the second step (74) formed between the part (71) and the part (71), it moves to the turn-back part (75) without returning to the ignition position part (71). When the pressing force of the ignition switch (55) is released after moving to the folding back part (75), the engagement element (56) moves the folding back part (75) upward due to the spring elasticity of the piezoelectric generation unit (51). Then, the process returns to the first engaging portion (70). At this time, the third step (76) formed between the folded-back portion (75) and the second engagement portion (72) causes the engagement element (56) to return to the second engagement portion (72). There is no such thing. When the engaging element (56) returns to the first engaging portion (70), the lever member (54) returns and the burner nozzle (13) descends, so that the gas supply is stopped and the fire is extinguished.

[0031]

[Work]

 At the time of ignition, the ignition switch (55) linked to the piezoelectric generation unit (51) is pressed to operate. When the ignition switch (55) is pressed, one end of the pressing member (53) is lowered to generate high-voltage piezoelectricity, which causes spark discharge, and at the same time, the lever member (54) is also lifted to operate the burner. The valve (11) opens and fuel gas is ejected and ignited. When the pressing force of the ignition switch (55) is released, the engagement element (56) moves and locks to the second engagement portion (72) in the cam groove (57), and the lever member is prevented from returning to the burner nozzle. To keep the valve open by pushing it up, the outflow of gas is continued and the ignition state is maintained. When extinguishing the fire, when the ignition switch (55) is pressed, the engaging element (56) of the ignition switch (55) located at the second engaging portion (72) moves to the folding back portion (75), and the ignition switch ( When the 55) is released, the engaging element (56) returns to the first engaging section (70), the lever member (54) returns and the burner nozzle (13) descends, so the gas supply is stopped and the fire is extinguished. To be done.

The fuel gas ejected from the upper end of the burner nozzle (13) flows into the fuel cylinder (12) located above it. Due to the jet flow of the fuel gas, air is sucked from the gap between the burner nozzle (13) and the combustion tube (12) and mixed with the fuel gas, rising in the combustion tube (12) and ignited by the discharge spark and burned. To do. Since the heat-resistant member (35) is red-heated by the combustion flame, the heat-resistant member (35) which has been red-heated due to the see-through property of the wire mesh (34) can be easily visually recognized. Also, by radiating the radiant light of the heat-resistant member (35) that becomes red-heated to the outside, ignition can be confirmed even at a long distance. After ignition, a desired fragrance material is placed on the wire net (34) and heated, and the incense burner lid (2) is fitted to enjoy the smoke rising from the incense burner lid (2).

The injection amount of the fuel gas can be adjusted by rotating the burner valve (11) by rotating the gas flow rate adjusting ring. The fuel gas is injected into the tank (45) by connecting a refill cylinder to the injection nozzle (44) of the injection valve (42) on the bottom surface (41) of the main body.

[0034]

[Effect of device]

 According to the incense burner of the present invention, by disposing the cam means in the main body, the combustion of the gas is maintained even after the finger is ignited, and it is not necessary to continuously press the switch until the fragrant wood or the incense is ignited. Also, the gas flow rate can be easily adjusted without lifting the incense burner body. Furthermore, the ignition state can be visually confirmed from the outside such as a wire mesh, and the radiated light of the heat-resistant member (35) which has turned into red heat is reflected to the outside, whereby the ignition can be confirmed and it is safe.

[Brief description of drawings]

FIG. 1 External perspective view

FIG. 2 is an external perspective view of the incense burner lid removed.

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

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

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

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

FIG. 7 is a sectional view taken along line 6A-A of FIG.

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

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

FIG. 10 is an operation diagram of the 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 section.

FIG. 13 is a diagram showing 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 is a diagram showing an ignition state.

FIG. 17 is a diagram showing the operation of a switch.

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

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

FIG. 20 is a vertical 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 adjusting neck (16) Neck insertion hole (17) Actuating member (18) Protrusion (19) Slit (20) Angle regulating member (21) Protrusion (22) Small hole (23) Claw piece (24) Claw piece engaging plate (25) Claw piece engaging part (26 ) Gas flow adjustment 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 section (41) Bottom surface (42) Injection valve (43) Injection volume control tube (44) Injection nozzle (45) Tank (50) Ignition mechanism section (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 part (60) Support part (61) Support part (62) Work clamp Plate (63) Push-up piece (64) Lead wire (65) Ground plate (66) Bottom horizontal part (67) Bottom part (68) Abutment part (69) Guide member (70) First part Mating part (71) Ignition position part (72) Second engaging part (73) First step (74) Second step (75) Folding part (76) Third step (77) Fourth step ( 78) Placement piece (79) Ignition switch abutment piece (80) Piezoelectric generation unit abutment piece (81) Placement piece (82) Abutment piece (83) Fixing member (84) Abutment part (85) No. 1st opening (86) 2nd opening (87) 3rd opening (88) Mounting member (89) Rise (91) 1st opening (92) 2nd opening (93) Rise (94) Stopper

Claims (7)

[Scope of utility model registration request] 1. A incense burner in which a burner valve mechanism section, a combustion dish mechanism section, a fuel gas storage mechanism section, and an ignition mechanism section are associated with each other in the incense burner body and associated with each other, and a heat-resistant member that turns into red heat is disposed above the burner valve. In the above, there is provided an engagement element connected to the ignition switch of the ignition mechanism section, and a cam groove formed in the incense burner main body, wherein the cam groove is the first engagement section located when the engagement element is in the gas ignition non-operation state, The engaging element is provided with an ignition position portion located in the gas ignition state, and the engaging element includes a second engaging portion located in the gas continuous combustion state, the engaging element being a first engaging portion formed in the cam groove, and ignition. The position part and the second engagement part are movable in this order, and a blocking means for blocking the reverse movement is arranged in the cam groove so that flame ignition, continuous combustion, and fire extinguishing can be sequentially performed. Incense burner characterized by. 2. The incense burner according to claim 1, wherein the blocking means for blocking the reverse movement of the engagement element has a step. 3. A wire mesh for placing and supporting incense is arranged on the upper part of the heat-resistant member, and the heat-resistant member which has been red-heated by a combustion flame can be seen from the outside through the wire mesh.
The incense burner described in (1). 4. An arc-shaped reflector plate is arranged in a combustion dish mechanism section located above the burner valve mechanism section in the incense burner body so as to reflect the radiant light of the heat-resistant member that has turned red. The incense burner according to any one of claims (1), (2), and (3). 5. A gas flow rate adjusting ring is rotatably arranged on the outer circumference of the incense burner main body, and the gas flow rate adjusting ring and the adjusting member of the burner valve are connected so that the gas flow rate can be adjusted. The incense burner. 6. The incense burner according to claim 5, wherein the burner valve and the gas flow rate adjusting ring are connected via an actuating member and an angle adjusting member. 7. A lever member in which an ignition mechanism section is connected to a burner nozzle located in the burner valve mechanism section of the incense burner main body,
It has a push-down member linked to the lever member, an ignition switch and a piezoelectricity generating unit that come into contact with the push-down 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 in the substantially central portion of the pressing member.
The placing piece is swingable about a fulcrum, one end of the pressing member abuts on the ignition switch, and the other end abuts on the lever member.
An opening into which the burner nozzle is inserted is formed in the vicinity of the placing piece in the substantially central portion of the pressing member, and by the operation of the ignition switch,
The lever member is rocked in cooperation with the rocking of the pressing member, the burner nozzle connected to the lever member is opened, and the flame is ignited.
2. The burner nozzle is kept open in a state in which the lever member is prevented from returning in a state in which the engaging element is located at the second engaging portion in the cam groove. Incense burner.