KR200453476Y1 - Temperature rise preventing structure for Glass top panel belonging to Gas Range - Google Patents

Abstract

A glass plate temperature rise prevention structure of the gas range is provided. The glass plate temperature rise prevention structure of the disclosed gas stove is provided with a cover body at the bottom and a burner cap at the top to provide a thermal power source by gas ignition supplied from the burner body of the gas range. The burner unit is provided with a communication hole so as to communicate with the cover body of the burner, the glass upper plate is formed so as to close the inside of the stove at the lower cover body, and the sealing packing member coupled to the inner end of the communication hole of the glass upper plate It includes, The sealing packing member maintains a predetermined distance between the cover body and the glass top plate of the burner to prevent the flame from the burner portion to transfer heat directly to the glass top plate.

The glass plate temperature rise prevention structure is different from the prior art by inserting a sealing sealing member formed with a projection around the communication hole of the glass plate to prevent the hot metal members directly contact the glass plate and through a predetermined space of the protrusion By allowing the hot air inside the glass plate to smoothly escape, the glass plate may be prevented from being damaged by the high temperature.

Glass top plate, heat sink, sealing seal member, burner part, cover body

Description

Temperature rise preventing structure for Glass top panel belonging to Gas Range}

The present invention relates to a glass plate protection structure of a gas range, and more particularly, a high temperature generated during cooking by adopting a sealing packing member and a heat dissipation member between the glass plate and the burner in a gas range to which the glass plate is applied. It relates to a glass plate temperature rise prevention structure of the gas range to minimize the effect on the glass plate from the heat of the.

In general, a gas range is a device for cooking food using a flame generated when gas is burned. The conventional gas stove has a large burner cap, a cover body, and a burner body. In addition, the general cover body is located on the upper portion of the burner body is formed of a constant width of the salt holes, by providing a fire power by discharging the flame into the salt holes. Recently, glass top plates are being used a lot for reasons such as strengthening the design aspects of gas stoves and easy cleaning. Hereinafter, a glass plate structure of a conventional gas stove will be described with reference to FIG. 1.

1 is an exploded perspective view illustrating a top plate structure of a conventional gas stove.

Hereinafter, a description will be given with reference to FIG. 1. A glass plate 30 having a communication hole formed around the burner body 10 fixed to the gas range is placed. The sealing member 15 is inserted into and fastened to the inner end of the communication hole of the glass upper plate 30. The burner body 10 includes a bracket burner 20, a cover body 40, and a burner cap 60 in this order.

In the combustion process in the gas range, the gas introduced into the burner body 10 is formed as a flame by the ignition means on the burner body 10, and the flame is formed in a predetermined protrusion on the cover body 40. It is ejected through the formed salt holes (50).

In the above prior art, when the temperature of the cover body 40 increases rapidly during cooking, the glass plate 30 is affected by heat conduction and radiant heat.

In addition, the sealing member 15 which serves as a sealing between the cover body 40 and the glass top plate 30 completely seals the inside and outside of the gas range so that the sealing member 15 and the glass top plate 30 come into contact with each other. The site (see 35) is sealed. That is, the cover body 40 and the glass top plate 30 are closed, so that the high temperature heat generated inside the gas stove during cooking of the gas is transferred to the surface of the glass top plate 30 as a result. Raise the surface temperature of) to cause breakage.

In addition, the glass plate 30 may be caused by an accident such as explosion due to the high temperature heat and pressure accumulated in the gas range may be a user's safety.

The present invention has been devised in view of the above, the glass plate temperature of the gas range to prevent the glass plate from being damaged by suppressing the temperature rise of the surface of the glass plate from the flame generated during cooking of the gas range. An object of the present invention is to provide a lift preventing structure.

Glass top plate temperature rise prevention structure of the present invention provided to achieve the above object is a cover body is formed at the bottom to provide a thermal power source by gas ignition supplied from the burner body portion of the gas range The upper portion is provided with a burner cap provided with a burner cap, a communication hole to communicate with the cover body of the burner portion, and a glass upper plate formed to close the inside of the stove at the bottom of the cover body, and communication between the glass upper plate. And a sealing packing member coupled to an inner end of the hole, wherein the sealing packing member has a predetermined distance between the cover body of the burner and the glass upper plate to prevent heat from the heat source of the burner part being directly transferred to the glass upper plate. It is characterized in that it is formed.

Here, the sealing packing member is preferably formed with a protrusion of a predetermined height along the upper surface of the inner end coupled to the glass top plate at a predetermined interval.

Preferably, the apparatus further comprises a heat dissipation member positioned to communicate between the burner unit and the glass upper plate, wherein the heat dissipation member is in direct contact with the burner unit and spaced apart from the glass upper plate by a predetermined distance. By the heat can be prevented from being transferred to the glass plate.

In addition, the lower end of the heat dissipation member is located on the top of the protrusion formed on the sealing packing member, and a predetermined space is formed between the protrusions to facilitate the convection of air, so that the heat generated during operation of the gas range is easily provided. It can be discharged through the space.

Preferably, the heat dissipation member may be made of stainless steel to have durability.

In addition, the sealing packing member may be a heat resistant resin material.

The glass plate temperature rise prevention structure of the gas range according to the present invention as described above, unlike the prior art by inserting a sealing sealing member formed with a projection around the communication hole of the glass plate to prevent the high-temperature metal members directly contact the glass plate By allowing the hot air inside the glass plate to smoothly escape through the predetermined space of the protrusion, it is possible to prevent the glass plate from being damaged by the high temperature.

In addition, the sealing sealing member is structurally prevented from damage due to impact and load of the object.

The above objects, features and other advantages of the present invention will become more apparent by describing the preferred embodiments of the present invention in detail with reference to the accompanying drawings. Hereinafter, the glass plate temperature rise prevention structure of the gas range according to an embodiment of the present invention with reference to the accompanying drawings will be described in detail.

Hereinafter, embodiments of the present invention will be described in more detail with reference to the accompanying drawings.

Figure 2 is an exploded perspective view showing a glass plate temperature rise prevention structure of the gas range according to an embodiment of the present invention, Figure 3 is a burner and the glass plate and heat radiation in the glass plate temperature rise prevention structure of the gas range of Figure 2 4 is a perspective view illustrating the coupling with the member, and FIG. 4 is an enlarged cross-sectional view of the main part along the line AA to show the coupling structure between the gas sealing member and the glass top plate in the glass plate protection structure of the gas range of FIG. 3.

In general, the gas range is located on the body portion is provided with the operation plate is placed on the burner unit that can cook food by providing a firepower on the top plate. In recent years, by mounting the top plate with glass has provided an advantageous effect in terms of appearance and hygiene, the following detailed description will be described in detail for the protective structure of the glass top plate of the gas range.

A burner unit 150 and a glass upper plate disposed below the burner unit 150 to provide a thermal power source by igniting the gas supplied from the burner body 110 fixed inside the gas range ( 120 and the sealing packing member 170 coupled to the inner end of the glass upper plate 120.

The burner unit 150 has a cover body 152 is disposed at the bottom, the burner cap at the top

158 is provided and coupled up and down. A salt hole 155 having a constant width is formed at an upper end of the cover body 152 near the through hole 153. The salt hole 155 has a thermal power controlled according to the amount of mixed gas supplied from a venturi tube (not shown). do.

The heat dissipation member 140 having an inner hole is disposed below the burner unit 150 so as to communicate with the burner unit 150 in the center thereof. The heat dissipation member 140 may effectively conduct heat in a state in which the cover body 152 of the burner unit 150 is in close contact with the cover body 152 when high temperature heat is generated. That is, the heat dissipation member 140 is in direct contact with the burner unit 150 and spaced apart from the glass upper plate 120 by a predetermined distance so that the heat by the flame from the burner unit 150 is transferred to the glass upper plate 120. Block it. In addition, by structurally supporting the burner unit 150 from the bottom, it provides an advantageous effect in terms of durability.

A bracket burner 130 is positioned between the heat dissipation member 140 and the burner body 110. The bracket burner 130 is coupled to the burner body portion 110 to structurally protect the burner body portion 110 and to absorb shocks between the burner body portion 150.

The glass upper plate 120 has a communication hole 122 to communicate with the cover body 152 of the burner unit 150 and is formed to close the inside of the stove.

Hereinafter, the relationship between the sealing packing member 170, the glass upper plate 120, and the heat dissipation member 140 will be described with reference to FIGS. 2 to 4 again.

The sealing packing member 170 is coupled along the outer circumferential surface of the inner end portion of the communication hole 122 formed in the glass upper plate 120, and protrusions 172 having a predetermined height are formed along the upper edge of the outer circumferential surface at predetermined intervals. That is, the cushioning member of the silicon material of the structure formed in the "c" shape may be inserted and fixed along the inner surface of the communication hole 122.

The sealing packing member 170 is disposed between the cover body 152 of the burner unit 150 and the glass upper plate 120 to prevent the flame from the burner unit 150 from transferring heat directly to the glass upper plate 120. Maintain a predetermined interval.

The sealing packing member 170 is preferably formed of a material resistant to heat, and may be made of a heat resistant resin such as a phenol resin or an epoxy resin.

The heat dissipation member 140 is located at the upper end of the protrusion 172 formed on the sealing packing member 170, the lower end portion is formed by a predetermined space 175 to facilitate the flow of air between the protrusions 172 Heat generated during operation of the gas range can be easily formed through the predetermined space 175 to form a structure.

 The sealing packing member 170 not only dissipates and blocks the heat as described above, but also structurally isolates the glass top plate 120 from the heat dissipation member 140 and the burner part 150, thereby improving durability of the glass top plate 120. Can improve.

Hereinafter, a process in which the glass plate is protected from the temperature and impact generated during cooking through the protective structure of the glass plate of the gas range will be described.

First, the mixed gas is supplied to the burner body 110 of the gas range from an external pipe. The mixed gas generates a spark by the ignition means 112 provided in the burner body 110 and starts combustion. The flame is discharged to the salt holes 155 formed in the cover body 152 through the bracket burner 130, the heat dissipation member 140, and the cover body 152 in communication with each other.

As described above, the body of the cover body 152 is maintained at a high temperature by the flame. The heat dissipation member 140 in close contact with the bottom serves to disperse the heat through a large area. The heat dissipation member 140 is preferably formed of a metallic material having excellent thermal conductivity, and may be formed of stainless steel to have durability. The heat radiating member 140 may be formed in a thin plate shape in order to effectively disperse heat.

During the cooking process, heat may not be emitted from the inner portion of the communication hole 122 in the lower portion of the heat dissipation member 140, that is, the glass top plate 120, and the protrusion 172 on the sealing packing member 170 may be a heat dissipation member ( The high temperature heat may be discharged to the outside through the predetermined space 175 spaced between the 140 and the glass plate 120 (see reference numeral 115).

As described above, the protrusion 172 is formed on the sealing packing member 170 to form an air flow between the heat dissipation member 140 and the sealing packing member 170 to generate heat from the heat dissipation member 140. ) Can be prevented from being transmitted directly to the unit, preventing damage caused by high temperatures.

In addition, the sealing packing member 170 supports the heat dissipation member 140 and the burner unit 150 on the glass plate 120 with a buffering force to prevent the pressed shape of the glass plate 120 to mitigate the impact applied to. Can be.

Although a preferred embodiment of the present invention has been described above, the present invention is not limited to the above-described specific embodiment. That is, a person having ordinary knowledge in the technical field to which the present invention belongs may make a number of changes and modifications to the present invention without departing from the spirit and scope of the appended claims, and all such appropriate changes and modifications may be made. Equivalents should be considered to be within the scope of the present invention.

1 is an exploded perspective view showing a top plate structure of a conventional gas stove,

Figure 2 is an exploded perspective view showing a glass top plate protection structure of the gas range according to an embodiment of the present invention,

Figure 3 is a perspective view showing the combination of the burner portion and the glass top plate and the heat radiation member in the glass plate protection structure of the gas range of Figure 2, and

Figure 4 is an enlarged cross-sectional view of the main portion along the line A-A to show the coupling structure between the sealing sealing member and the glass top plate in the glass top plate protection structure of the gas range of FIG.

<Description of the symbols for the main parts of the drawings>

110: burner main body 120: glass plate

130: bracket burner 140: heat sink

150: burner portion 152: cover body

155: flame attack 158: burner cap

170: sealing seal member 172: protrusion

Claims (6)

A burner portion having a cover body at a lower portion thereof and a burner cap at an upper portion thereof so as to provide a thermal power source by gas ignition supplied from the burner body portion of the gas range; A communication hole is provided to communicate with the cover body of the burner, and a glass upper plate formed to close the inside of the stove at the bottom of the cover body; And In the glass plate temperature rise prevention structure of the gas range is coupled to the inner end of the communication hole of the glass plate, consisting of a sealing packing member formed with a protrusion of a predetermined height along the upper surface of the inner end portion, The sealing packing member is a gas range characterized in that a predetermined interval is formed by the projection between the cover body and the glass top plate of the burner to prevent the heat from the heat source of the burner directly transferred to the glass top plate. Glass plate temperature rise prevention structure. The method of claim 1, The sealing packing member is a glass plate temperature rise prevention structure of the gas range, characterized in that the buffer member of the silicon material of the structure formed in the "c" shape is inserted and fixed along the inner surface of the communication hole. The method according to claim 1 or 2, Further comprising a heat dissipation member provided to communicate between the burner and the glass top plate, The heat dissipation member is in direct contact with the burner portion and the glass plate is elevated by a predetermined distance away from the heat source from the burner, the glass plate temperature rise of the gas range, characterized in that the heat transfer to the glass plate is blocked. Resistant structure. The method of claim 3, wherein The lower end of the heat dissipation member is located at the upper end of the protrusion formed on the sealing packing member, and a predetermined space is formed between the protrusions to facilitate the convection of air, thereby facilitating heat generated when the gas range is operated. Glass plate temperature rise prevention structure of the gas range, characterized in that the discharge through. The method of claim 3, wherein The heat dissipation member is a glass plate temperature rise prevention structure of the gas range, characterized in that the stainless steel material. The method of claim 1, The sealing packing member is a glass plate temperature rise prevention structure of the gas range, characterized in that the heat-resistant resin.

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