KR200497255Y1 - Decoration candle - Google Patents

Abstract

The present invention relates to a decorative candle implemented to prevent the candle from tilting after being installed on a cake due to the weight of the decoration installed on the top of the candle. A decorative candle formed of numbers, letters, or shapes; A pillar formed in the vertical and longitudinal directions so as to support the decorative candle while inserted into the cake, and on which the decorative candle is installed; And a candle support installed in the middle of the initial pillar to support the initial pillar inserted into the cake, and seated on the upper side of the cake as the initial pillar is inserted into the cake.

Description

DECORATION CANDLE

The present invention relates to a decorative candle, and more specifically, to a decorative candle implemented to prevent the candle from tilting or falling over after being installed on a cake, etc. due to the weight of the decoration installed on the top of the candle.

In addition, the present invention relates to a decorative candle implemented to prevent the candle from sticking deeply into the cake, etc. due to the weight of the decoration.

With the advent of Western civilization, cakes are used for celebratory parties, birthdays and anniversaries, and candles are placed on these cakes to light them up and send congratulatory guns to pray for future development and blessings.

In other words, the candles are placed and fixed on the cake, the candles are lit, and wishes, congratulatory greetings, and songs are sung to convey the meaning of congratulations.

In general, a candle consists of a wick and a candle body that surrounds the wick and contains paraffin wax as its main ingredient. Recently, decorative candles with decorations have been used to create a more unique atmosphere, but these days, they are mainly used for birthdays and other celebratory events. To further heighten the celebratory atmosphere, the cake is decorated with candles and then lit to create a unique atmosphere.

However, conventional decorative candles have the disadvantage that the candle may tilt after being installed on a cake due to the weight of the decoration installed on the top of the candle, and there is a problem in that the candle may be inserted too deeply into the cake due to the weight of the decoration.

Meanwhile, the above-mentioned background technology is technical information that the designer possessed for deriving the present invention or acquired in the process of deriving the present invention, and cannot necessarily be said to be known technology disclosed to the general public before the application for the present invention. .

Korean Patent Publication No. 10-2010-0042442

One aspect of the present invention provides a decorative candle that is designed to prevent the candle from tilting after being installed on a cake due to the weight of the decorations installed on the top of the candle by using a candle holder installed on the candle pillar.

In addition, the present invention provides a decorative candle that is implemented to prevent the candle from being inserted too deeply into the cake, etc. due to the weight of the decoration, by using a candle holder installed on the candle pillar.

The technical problems of the present invention are not limited to the technical problems mentioned above, and other technical problems not mentioned will be clearly understood by those skilled in the art from the description below.

A decorative candle according to an embodiment of the present invention is a decorative candle formed of numbers, letters, or shapes; A pillar formed in the vertical and longitudinal directions so as to support the decorative candle while inserted into the cake, and on which the decorative candle is installed; and a candle support installed in the middle of the initial pillar to support the initial pillar inserted into the cake, and seated on the upper side of the cake as the initial pillar is inserted into the cake.

In one embodiment, the initial pillar includes a lower pillar for insertion into the cake; an upper pillar extending upward from the top of the lower pillar, and on which the decorative candle is installed; and a spiral screw formed to extend in a spiral shape along the outside of the lower pillar to prevent the lower pillar inserted into the cake from being separated from the cake.

In one embodiment, the candle pedestal may be installed at a location where the lower pillar and the upper pillar face each other.

In one embodiment, the candle support includes a first support protrusion that is bent roundly downward in a "U" shape and is installed on one side of a connecting portion where the lower pillar and the upper pillar face each other; and a second support protrusion that is bent roundly downward in a “U” shape and is installed while opposing the first support protrusion on the other side of the connection portion where the lower pillar and the upper pillar face each other.

In one embodiment, the first support protrusion and the second support protrusion may have front-to-back widths thicker than the diameter of the lower pillar or the upper pillar, which is formed in a cylindrical shape.

In one embodiment, the second support includes a third support protrusion that is bent in a “W” shape and installed on one side of a connecting portion where the lower pillar and the upper pillar face each other; and a fourth support protrusion that is bent in a “W” shape and is installed while opposing the third support protrusion on the other side of the connecting portion where the lower pillar and the upper pillar face each other.

In one embodiment, the upper pillar includes a heat transfer unit installed inside the decorative candle, receiving heat from the decorative candle as the decorative candle burns, and then transferring the received heat; a driving unit installed below the heat transfer unit to receive heat from the heat transfer unit; and a rotation unit rotatably connected to the lower part of the drive unit and rotated by the drive unit to generate an upward airflow so that the flame caused by the decorative candle can be guided upward.

In one embodiment, the driving unit includes an upper block formed in a cylindrical shape and installed below the heat transfer unit; an installation bar that penetrates the center of the rotation unit in the vertical direction and is formed in a cylindrical shape so that the rotation unit can be connected and installed to be rotatable, extending between the upper block and the lower column; a seating housing that is recessed from the bottom of the upper block upward while forming an opening on the lower side of the upper block; It may include; and at least one rotation-induced firing unit is sequentially installed in a stacked direction from the bottom to the top of the seating housing.

In one embodiment, the rotation-induced firing unit includes a heat transfer frame extending from the heat transfer unit and transferring heat transferred from the heat transfer unit; It is formed to extend in the horizontal direction, one end is connected to the end of the heat transfer frame, and the other end is inserted and disposed inside the seating housing. As heat is transferred from the heat transfer frame, the other end is gradually bent to move out of the seating housing. a moving bimetal switch; One end is rotatably connected to one inner wall of the seating housing, and the other end is supported by the other end of the bimetal switch and installed across the seating housing. As the other end of the bimetal switch is bent, the bimetal switch a supporting frame that opens the seating housing by rotating the supported other end downward; a weight sphere that is seated on the upper side of the mounting frame and moves downward as the mounting frame is rotated and the seating housing is opened; and a sphere firing spring installed on the upper side of the weight sphere in a compressed state to increase the descending speed of the weight sphere.

In one embodiment, the rotation unit includes a lower block disposed in close contact with the lower side of the upper block; It is formed on one upper side and the other upper side of the lower block opposite to the lower opening of the seating housing, and accommodates the weight sphere discharged from the seating housing into the internal space while at the same time generating force generated by impact by the weight sphere. Two rotation induction receptors that induce rotation of the lower block using; Two rotation inducing spheres installed on the upper part of the lower block and connected to them without intersecting the two rotation inducing receptors; a rotating pipe formed in a circular pipe shape and installed on the lower side of the lower block so that the installation bar can be inserted inside; and an airflow generating screw that extends in a spiral direction along the outer peripheral surface of the rotary pipe so as to form an upward airflow while rotating as the rotary pipe rotates.

In one embodiment, the rotation inducing sphere portion includes a sphere seating groove that is recessed from the top to the bottom of the lower block while forming an opening upward; A sphere whose upper part is exposed above the sphere seating groove and is rotatably connected to the upper part of the sphere seating groove; a sphere support supporting the lower side of the sphere; a sphere support spring installed on the lower side of the sphere seating groove to support the lower side of the sphere pedestal; and a pedestal support installed below the spherical pedestal to support the spherical pedestal.

In one embodiment, the upper block is formed with a first block lower groove and a second block lower groove for seating the sphere on the lower side, and the upper block is formed between the first block lower groove and the second block lower groove. A first sphere movement groove and a second sphere movement groove may be formed to extend in a ring shape along the edge of the lower surface so that the sphere can move while rotating.

In one embodiment, the first spherical moving groove may form an inclined surface so that the height gradually increases from the first block lower groove to the second block lower groove.

In one embodiment, the second spherical moving groove may form an inclined surface so that the height gradually increases from the second block lower groove to the first block lower groove.

In one embodiment, the rotation induction receiving part includes an accommodating housing installed inside the lower block, wherein an upper opening is formed at the upper part of the lower block to face the lower opening of the seating housing; A sphere support plate disposed in an inclined direction so that the weight sphere introduced into the inner space of the housing through the opening of the housing can be struck, the lower side of which is rotatably connected to the bottom surface of the housing; a plate support spring supporting the lower side of the spherical support plate; and a support lowering frame that is connected to the lower side of the spherical support plate and lowers the pedestal support as the spherical support plate is struck and rotated by the weight sphere.

According to one aspect of the present invention described above, it is possible to provide the effect of preventing the candle from tilting or falling after being installed on a cake, etc. due to the weight of the decoration installed on the top of the candle.

Because of this, the present invention can provide the effect of preventing the candle from touching the cake by preventing the candle from tilting or falling.

In addition, the present design has the advantage of preventing the candle from sticking too deeply into the surface of the cake, contrary to the user's intention, due to the weight of the decoration.

The effects of the present invention are not limited to the effects mentioned above, and various effects may be included within the range that will be apparent to those skilled in the art from the contents described below.

Figure 1 is a diagram showing the schematic configuration of a decorative candle according to an embodiment of the present invention.
Figure 2 is an example of mounting a decorative candle according to an embodiment of the present invention.
Figure 3 is a diagram showing the initial pillar of Figure 1.
Figure 4 is a diagram showing one embodiment of the candle rest of Figure 1.
Figure 5 is a diagram showing another embodiment of the candle rest of Figure 1.
FIG. 6 is a view showing one embodiment of the upper pillar of FIG. 3.
FIG. 7 is a diagram showing the driving unit of FIG. 6.
Figure 8 is a diagram showing the rotation unit of Figure 6.

For the detailed description of the present invention described below, refer to the accompanying drawings, which show as examples specific embodiments in which the present invention can be implemented. These embodiments are described in sufficient detail to enable those skilled in the art to practice the present invention. It should be understood that the various embodiments of the present invention are different from each other but are not necessarily mutually exclusive. For example, specific shapes, structures and characteristics described herein may be implemented in one embodiment without departing from the spirit and scope of the invention. Additionally, it should be understood that the location or arrangement of individual components within each disclosed embodiment may be changed without departing from the spirit and scope of the present invention. Accordingly, the detailed description set forth below is not intended to be taken in a limiting sense, and the scope of the present invention is limited only by the appended claims, together with all equivalents to what those claims assert, if properly described. Similar reference numbers in the drawings refer to identical or similar functions across various aspects.

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

Figure 1 is a diagram showing the schematic configuration of a decorative candle according to an embodiment of the present invention.

Referring to Figure 1, a decorative candle 10 according to an embodiment of the present invention includes a decorative candle 100, a candle pillar 200, and a candle base 300.

The decorative candle 100 is formed by adding various pigments or scents to paraffin, a common material used in candle production, such as numbers, letters, or figures (for example, flower shapes as shown in Figure 1). It is installed so that the wick 110 is exposed at the top, and is installed at the top of the initial pillar 200.

The initial pillar 200 is formed in the vertical direction so as to support the decorative candle 100 while inserted into the cake (C), and the decorative candle 100 is installed on the top.

In one embodiment, the thickness L8 of the initial pillar 200 may be preferably set to 2.4 cm to 2.8 cm, more preferably 2.6 cm.

The candle support 300 is installed at the middle of the initial pillar 200 to support the initial pillar 200 inserted into the cake C, as illustrated in FIG. 2, and the initial pillar 200 is attached to the cake C. As it is inserted into (C), it is seated on the upper side of the cake (C).

In one embodiment, the thickness L9 of the candle base 300 is preferably 5.8 cm to 6.2 cm, more preferably 6.0 cm, which is thicker than the thickness of the initial pillar 200.

At this time, the angle (?3) of the extension line between the lower end of the candle base 300 and the lower end or front end of the initial pillar 200 will be formed at an angle of 83 degrees.

The decorative candle 10 according to an embodiment of the present invention having the above-described configuration uses a candle holder 300 to prevent the candle from tilting or falling after being installed on a cake, etc. due to the weight of the decoration installed on the top of the candle. can do.

Figure 3 is a diagram showing the initial pillar of Figure 1.

Referring to FIG. 3, the initial pillar 200 includes a lower pillar 210, an upper pillar 220, and a spiral screw 230.

The lower pillar 210 is inserted into a food such as a cake (C), and the upper pillar 220 extends from the upper side, and a spiral screw 230 extends along the outer side.

In one embodiment, the length L3 of the lower pillar 210 may be preferably set to 27.8 cm to 28.2 cm, more preferably 28.0 cm (see FIG. 1).

The upper pillar 220 extends upward from the top of the lower pillar 210, and a decorative candle 100 is installed on the upper part.

In one embodiment, the length L2 of the upper pillar 220 may be preferably set to 17.0 cm to 17.4 cm, more preferably 17.2 cm (see FIG. 1).

In other words, it would be desirable for the initial pillar 200 to have a total length (L1) of 44.8 cm to 45.6 cm, more preferably 45.2 cm (see FIG. 1).

In one embodiment, the candle stand 300 may be installed at a location where the lower pillar 210 and the upper pillar 220 face each other.

The spiral screw 230 is formed to extend in a spiral shape along the outside of the lower pillar 210 to prevent the lower pillar 210 inserted into the cake (C) from being separated from the cake (C).

In one embodiment, the spiral screw 230 may be formed in a portion excluding the upper 6 cm (L4) and lower 6 cm (L7) of the lower pillar (see FIG. 1).

In one embodiment, the helical screw 230 may preferably have a spacing L5 between threads of 3.2 cm to 3.6 cm, more preferably 3.4 cm (see FIG. 1).

In one embodiment, the helical screw 230 may preferably have a thread thickness L6 of 0.9 cm to 1.3 cm, more preferably 1.1 cm (see FIG. 1).

In one embodiment, the helical screw 230 may preferably have the inclination angles (?1, -2) of the screw threads formed at an angle of 70 degrees or an angle of 110 degrees (see FIG. 1).

The candle pillar 200 having the above-described configuration can effectively prevent the candle from tilting after being installed on a cake, etc. due to the weight of the decoration installed on the top of the candle.

Figure 4 is a diagram showing one embodiment of the candle rest of Figure 1.

Referring to FIG. 4, the candle holder 300a according to one embodiment includes a first holder protrusion 310 and a second holder protrusion 320.

The first support protrusion 310 is bent roundly downward in a “U” shape and is installed while facing the second support protrusion 320 on one side of the connection portion where the lower pillar 210 and the upper pillar 220 face each other. As the initial pillar 200 is inserted into the cake (C), it is seated on the upper side of the cake (C).

The second support protrusion 320 is bent roundly downward in a “U” shape and is installed while facing the first support protrusion 310 on the other side of the connection portion where the lower pillar 210 and the upper pillar 220 face each other. As the initial pillar 200 is inserted into the cake (C), it is seated on the upper side of the cake (C).

In one embodiment, the first support protrusion 310 and the second support protrusion 320 have a front-to-back width L9 greater than the diameter L8 of the lower pillar 210 or the upper pillar 220, which is formed in a cylindrical shape. It can be formed thickly (see Figure 1).

Figure 5 is a diagram showing another embodiment of the candle rest of Figure 1.

Referring to FIG. 5 , the candle holder 300 according to another embodiment includes a third holder protrusion 330 and a fourth holder protrusion 340.

The third support protrusion 330 is bent in a “W” shape and is installed opposite the fourth support protrusion 340 on one side of the connecting portion where the lower pillar 210 and the upper pillar 220 face each other. As the initial column 200 is inserted into the cake (C), it is seated on the upper side of the cake (C).

The fourth support protrusion 340 is bent in a “W” shape and installed opposite the third support protrusion 330 on the other side of the connection portion where the lower pillar 210 and the upper pillar 220 face each other. As (200) is inserted into the cake (C), it is seated on the upper side of the cake (C).

In one embodiment, the third support protrusion 330 and the fourth support protrusion 340 have a front-to-back width L9 greater than the diameter L8 of the lower pillar 210 or the upper pillar 220, which is formed in a cylindrical shape. It can be formed thickly (see Figure 1).

FIG. 6 is a view showing one embodiment of the upper pillar of FIG. 3.

Referring to FIG. 6, the upper pillar 400 according to one embodiment is a diagram showing a heat transfer unit 410, a drive unit 420, and a rotation unit 430.

The heat transfer unit 410 is made of a highly thermally conductive material such as copper, is installed inside the decorative candle 100, and transfers heat from the decorative candle 100 as the decorative candle 100 burns. After receiving, the received heat is transferred to the driving unit 420.

The drive unit 420 is installed below the heat transfer unit 410 and receives heat from the heat transfer unit 410 to rotate the rotation unit 430.

The rotation unit 430 is rotatably connected to the lower part of the drive unit 420 and is rotationally driven by the drive unit 420 to create an upward airflow so that the flame caused by the decorative candle 100 can be guided upward. It generates

The upper pillar 400 according to an embodiment having the above-described configuration forms an upward air current, thereby guiding not only the flame but also the soot generated as the decorative candle 100 burns upward. , It not only induces the candle to ignite stably, but also prevents the cake (C), etc. from being contaminated by soot, etc.

FIG. 7 is a diagram showing the driving unit of FIG. 6.

Referring to (a) of FIG. 7, the drive unit 420 includes an upper block 421, an installation bar 422, a seating housing 423, and at least one rotation-induced firing unit 424-1 to 424-3. This is a drawing showing ).

The upper block 421 is formed in a cylindrical shape and is installed on the lower side of the heat transfer unit 410, and a seating housing 423 and at least one rotation induction firing unit 424-1 to 424-3 are installed along the inside. And an installation bar 422 is installed on the lower side.

The installation bar 422 is inserted through the center 431a of the rotation unit 430 in the vertical direction and is formed in a cylindrical shape so that the rotation unit 430 can be rotatably connected to the upper block 421. It is formed extending between the lower pillars 210.

The seating housing 423 is recessed in the upward direction from the lower side of the upper block 421 while forming an opening at the lower side of the upper block 421, and at least one rotation-inducing launcher 424-1 is formed from the lower side of the internal space. to 424-3) are installed in order.

At least one of the rotation-induced firing units 424-1 to 424-3 is sequentially stacked in the direction from the bottom to the top of the seating housing 423.

At this time, the rotation-induced firing units 424-1 to 424-3 are configured to vary the length or installation position of each bimetal switch 4242, so that the rotation-induced firing units 424-1 disposed on the lower side are positioned on the upper side. It would be desirable to ensure that the rotation induction launcher 424-3 disposed in is driven in sequence.

Referring to (b) of FIG. 7, the rotation induction launcher 424 includes a heat transfer frame 4241, a bimetal switch 4242, a mounting frame 4243, a weight sphere 4244, and a sphere launch spring 4245. Includes.

The heat transfer frame 4241 is made of a highly thermally conductive material, such as copper, and extends from the heat transfer unit 410 to transfer heat transferred from the heat transfer unit 410 to the bimetal switch 4242.

The bimetal switch (4242) is a bimetal material made by combining two types of thin, narrow, long metal plates with their long sides overlapping to form a single bar. It is usually formed to extend in the horizontal direction and one end is a heat transfer frame. It is connected to the end of (4241) and the other end is inserted into the seating housing 423 to support the mounting frame 4243, and as heat is transferred from the heat transfer frame 4241, the other end is gradually bent to form the seating housing. (423) is moved out so that the mounting frame 4243 is rotated.

The mounting frame 4243 has one end rotatably connected to one inner wall of the seating housing 423 and the other end supported by the other end of the bimetal switch 4242 and installed across the seating housing 423. As the other end of the switch 4242 is bent, the other end supported by the bimetal switch 4242 rotates downward, opening the seating housing 423 and allowing the weight sphere 4244 to fall.

In one embodiment, a seating groove 4242a corresponding to the shape of the mounting frame 4243 may be formed on the wall of the seating housing 423 so that the mounting frame 4243, which opens the internal space, can be seated. .

The heavy sphere 4244 is made of a material with a large weight, such as iron, and is seated on the upper side of the mounting frame 4243 while being supported by the ball launching spring 4245, and the mounting frame 4243 is rotated and seated. As the housing 423 is opened, it moves downward by its own weight and by the elastic force of the ball launch spring 4245 and is input into the rotation induction receptors 432-1 and 432-2, which will be described later.

The sphere launch spring 4245 is installed on the upper side of the weight sphere 4244 in a compressed state to increase the descending speed of the weight sphere 4244.

Figure 8 is a diagram showing the rotation unit of Figure 6.

Referring to (a) and (b) of FIG. 8, the rotation unit 430 includes a lower block 431, two rotation induction receptors 432-1 and 432-2, and two rotation induction spheres ( 433-1, 433-2), a rotating pipe 434, and an airflow generating screw 435.

The lower block 431 is disposed in close contact with the lower side of the upper block 421, and has two rotation inducing receptors 432-1 and 432-2 and two rotation inducing spheres 433-1 and 433- on the inside. 2) The following components are installed, a rotating pipe 434 is installed on the lower side, and a through hole 431a for inserting the installation bar 422 is formed along the center.

The rotation induction receptors 432-1 and 432-2 are formed on one upper side and the other upper side of the lower block 431 opposite to the lower opening of the seating housing 423, respectively, and discharged from the seating housing 423. The weight sphere 4244 is accommodated in the internal space and at the same time, the force generated by the impact of the weight sphere 4244 is used to induce rotation of the lower block 431.

That is, the rotation induction receptors 432-1 and 432-2 rotate at an angle of 180 degrees as the weight spheres 4244 are inserted and allow the weight spheres 4244 to be inserted one after another.

The rotation inducing spheres 433-1 and 433-2 are installed connected to the two rotation inducing receptors 432-1 and 432-2 at the top of the lower block 431 without intersecting them.

The rotating pipe 434 is formed in the shape of a circular pipe so that the installation bar 422 can be inserted into the inner side 434a and is installed on the lower side of the lower block 431, and an airflow generating screw 435 extends along the outside. is formed

The airflow generating screw 435 is formed to extend in a spiral direction along the outer peripheral surface of the rotary pipe 434 so as to form an upward airflow while rotating as the rotary pipe 434 rotates.

Referring to (c) of FIG. 8, the rotation inducing sphere part 433 includes a sphere 4331, a sphere pedestal 4332, a sphere support spring 4333, a pedestal support 4334, and a sphere seating groove 4335. Includes.

The sphere seating groove 4335 is recessed from the top to the bottom of the lower block 431 while forming an opening upward, and includes a sphere 4331, a sphere support 4332, a sphere support spring 4333, and Components such as a pedestal support 4334 are installed.

The sphere 4331 has its upper part exposed to the upper side of the sphere seating groove 4335 so that it can be seated in the first block lower groove 421a or the second block lower groove 421b, which will be described later. It is installed rotatably at the top and is supported by a spherical support 4332.

In one embodiment, the sphere 4331 is seated in the first block lower groove 421a or the second block lower groove 421b, and is moved to the first block lower groove according to the driving of the rotation induction receptor 432. After moving from (421a) or the second block lower groove (421b) to the first sphere movement groove (R1) or the second sphere movement groove (R2), the first sphere movement groove (R1) or the second sphere movement groove (R2) ) and moves along the rotation.

The sphere support 4332 supports the lower side of the sphere 4331 and is supported by the sphere support spring 4333.

The sphere support spring 4333 is installed on the lower side of the sphere seating groove 4335 and supports the lower side of the sphere support 4332.

The pedestal support 4334 is installed below the spherical pedestal 4332 and supports the spherical pedestal 4332.

In one embodiment, the upper block 421 is formed with a first block lower groove 421a and a second block lower groove 421b for seating the sphere 4331 on the lower side, and a first block lower groove ( The first sphere movement groove (R1) and the second sphere movement groove (R2) extend in a ring shape along the edge of the lower surface so that the sphere 4331 can rotate and move between 421a) and the second block lower groove (421b). can be formed.

In one embodiment, the first sphere movement groove (R1) is moved from the first block lower groove (421a) to the lower part of the second block so that the sphere (4331) can move along the inclined plane by the elastic force caused by the sphere support spring (4333). An inclined surface may be formed so that the height gradually increases toward the groove 421b.

In one embodiment, the second sphere movement groove (R2) moves from the second block lower groove (421b) to the lower part of the first block so that the sphere (4331) can move along the inclined plane by the elastic force generated by the sphere support spring (4333). An inclined surface may be formed so that the height gradually increases toward the groove 421a.

Referring to (d) of FIG. 8, the rotation induction receiving part 432 includes a receiving housing 4321, a spherical support plate 4322, a plate support spring 4323, and a support lowering frame 4324.

The receiving housing 4321 has an upper opening facing the lower opening of the seating housing 423 at the top of the lower block 431 so that the weight sphere 4244 can be introduced into the internal space, and the lower block 431 It is installed on the inside, and components such as a plate support spring 4323 and a support lowering frame 4324 are installed in the internal space.

The sphere support plate 4322 is disposed in an inclined direction so that the weight sphere 4244 inserted into the inner space of the accommodation housing 4321 through the opening of the accommodation housing 4321 can be struck, and the plate support spring 4323 It is supported by and the lower side is rotatably connected to the bottom surface of the receiving housing 4321.

The plate support spring 4323 supports the lower side of the spherical support plate 4322.

The support lowering frame 4324 is connected to the lower side of the spherical support plate 4322, and is lowered as the spherical support plate 4322 is struck and rotated by the heavy sphere 4244, thereby lowering the pedestal support 4334 together. Let me do it.

In one embodiment, the support lowering frame 4324 and the pedestal support 4334 are connected by a support 4334a, so that when the support 4334a is lowered as the support lowering frame 4324 lowers, the support 4334a The pedestal support 4334 can be lowered.

The rotation induction receptor 432 having the above-described configuration uses the kinetic energy generated as the weight sphere 4244 is introduced into the internal space and hits the spherical support plate 4322 forming an inclined surface to form an upper block. (421) can be rotated.

The above-described embodiments are for illustrative purposes, and those skilled in the art will recognize that the above-described embodiments can be easily modified into other specific forms without changing the technical idea or essential features of the above-described embodiments. You will understand. Therefore, the above-described embodiments should be understood in all respects as illustrative and not restrictive. For example, each component described as unitary may be implemented in a distributed manner, and similarly, components described as distributed may also be implemented in a combined form.

The scope sought to be protected through this specification is indicated by the patent claims described later rather than the detailed description above, and should be interpreted to include the meaning and scope of the claims and all changes or modified forms derived from the equivalent concept. .

10: Decorative candle
100: Decorative candle
200: initial pillar
300: Second base
400: upper pillar

Claims (10)

Decorative candles formed of numbers, letters or shapes;
A pillar formed in the vertical and longitudinal directions so as to support the decorative candle while inserted into the cake, and on which the decorative candle is installed; and
It includes a candle support installed in the middle of the initial pillar to support the initial pillar inserted into the cake, and seated on the upper side of the cake as the initial pillar is inserted into the cake,
The initial pillar is,
a lower pillar for insertion into the cake;
an upper pillar extending upward from the top of the lower pillar, and on which the decorative candle is installed; and
It includes a helical screw extending spirally along the outside of the lower pillar to prevent the lower pillar inserted into the cake from being separated from the cake,
The upper pillar is,
a heat transfer unit installed inside the decorative candle, receiving heat from the decorative candle as the decorative candle burns, and then transferring the received heat;
a driving unit installed below the heat transfer unit to receive heat from the heat transfer unit; and
It includes a rotating unit that is rotatably connected to the lower part of the driving unit and is rotationally driven by the driving unit to generate an upward air current so that the flame caused by the decorative candle can be guided upward.
The driving unit is,
an upper block formed in a cylindrical shape and installed below the heat transfer unit;
an installation bar that penetrates the center of the rotation unit in the vertical direction and is formed in a cylindrical shape so that the rotation unit can be connected and installed to be rotatable, extending between the upper block and the lower column;
a seating housing that is recessed from the bottom of the upper block upward while forming an opening on the lower side of the upper block; and
A decorative candle comprising; at least one rotation-induced firing unit that is sequentially installed in a stack from the bottom to the top of the seating housing.
The method of claim 1, wherein the candle rest,
A decorative candle installed at a position where the lower pillar and the upper pillar face each other.
The method of claim 2, wherein the candle rest,
a first support protrusion bent roundly downward in a “U” shape and installed on one side of a connecting portion where the lower pillar and the upper pillar face each other; and
A second support protrusion is formed by bending roundly downward in a "U" shape and is installed while opposing the first support protrusion on the other side of the connection portion where the lower pillar and the upper pillar face each other. A decorative candle comprising a.
The method of claim 3, wherein the first support protrusion and the second support protrusion are:
A decorative candle whose front-to-back width is thicker than the diameter of the lower pillar or the upper pillar, which is formed in a cylindrical shape.
The method of claim 2, wherein the candle rest,
A third support protrusion is bent in a “W” shape and installed on one side of a connecting portion where the lower pillar and the upper pillar face each other; and
A fourth support protrusion is bent in a "W" shape and is installed while opposing the third support protrusion on the other side of the connection portion where the lower pillar and the upper pillar face each other. A decorative candle comprising a.
According to paragraph 1,
The thickness of the initial pillar is,
It is formed from 2.4cm to 2.8cm,
The thickness of the candle rest is,
Decorative candle, measuring 5.8 cm to 6.2 cm.
According to paragraph 1,
The length of the lower pillar is,
It is formed from 27.8cm to 28.2cm,
The length of the upper pillar is,
Decorative candle, measuring 17.0 cm to 17.4 cm.
The method of claim 1, wherein the rotation induction firing unit,
a heat transfer frame extending from the heat transfer unit to transfer heat transferred from the heat transfer unit;
It is formed to extend in the horizontal direction, one end is connected to the end of the heat transfer frame, and the other end is inserted and disposed inside the seating housing. As heat is transferred from the heat transfer frame, the other end is gradually bent to move out of the seating housing. a moving bimetal switch;
One end is rotatably connected to one inner wall of the seating housing, and the other end is supported by the other end of the bimetal switch and installed across the seating housing. As the other end of the bimetal switch is bent, the bimetal switch a supporting frame that opens the seating housing by rotating the supported other end downward;
a weight sphere that is seated on the upper side of the mounting frame and moves downward as the mounting frame is rotated and the seating housing is opened; and
It includes a sphere firing spring that is installed on the upper side of the weight sphere in a compressed state to increase the descending speed of the weight sphere,
The rotating unit is,
a lower block disposed in close contact with the lower side of the upper block;
It is formed on one upper side and the other upper side of the lower block opposite to the lower opening of the seating housing, and accommodates the weight sphere discharged from the seating housing into the internal space while at the same time generating force generated by impact by the weight sphere. Two rotation induction receptors that induce rotation of the lower block using;
Two rotation inducing spheres installed on the upper part of the lower block and connected to them without intersecting the two rotation inducing receptors;
a rotating pipe formed in a circular pipe shape and installed on the lower side of the lower block so that the installation bar can be inserted inside; and
It includes an airflow generating screw that extends in a spiral direction along the outer peripheral surface of the rotary pipe so as to form an upward airflow while rotating as the rotary pipe rotates,
The rotation inducing sphere part,
a spherical seating groove that is recessed from the upper side of the lower block to the lower side while forming an opening toward the upper side;
A sphere whose upper part is exposed above the sphere seating groove and is rotatably connected to the upper part of the sphere seating groove;
a sphere support supporting the lower side of the sphere;
a sphere support spring installed on the lower side of the sphere seating groove to support the lower side of the sphere pedestal; and
It includes a pedestal support installed below the spherical pedestal to support the spherical pedestal,
The upper block is,
A first block lower groove and a second block lower groove are formed on the lower side for seating the sphere, and a border on the lower surface allows the sphere to rotate and move between the first block lower groove and the second block lower groove. The first sphere movement groove and the second sphere movement groove are formed to extend in a ring shape,
The first sphere moving groove is,
Forming an inclined surface so that the height gradually increases from the first block lower groove to the second block lower groove,
The second sphere moving groove is,
Forming an inclined surface so that the height gradually increases from the second block lower groove to the first block lower groove,
The rotation induction receptor,
An upper opening is formed at the top of the lower block to face the lower opening of the seating housing, and an accommodating housing is installed inside the lower block;
A sphere support plate disposed in an inclined direction so that the weight sphere introduced into the inner space of the housing through the opening of the housing can be struck, the lower side of which is rotatably connected to the bottom surface of the housing;
a plate support spring supporting the lower side of the spherical support plate; and
A support lowering frame that is connected to the lower side of the spherical support plate and lowers the pedestal support together as the spherical support plate is struck and rotated by the weight sphere. A decorative candle comprising a.
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