KR102380149B1 - Fire directing system - Google Patents

Abstract

The present invention relates to a fire directing system. The disclosed fire directing system comprises: a directed space for directing a fire; a first high-brightness laser irradiator for irradiating a high-brightness laser beam horizontally to an upper part of the directed space; a first fog sprayer which is provided adjacent to the first high-brightness laser irradiator and generates and sprays fog into an irradiation area of a high-brightness laser beam; and a first circulator provided at the rear of the first fog sprayer and blowing the fog. Accordingly, a user can effectively perform a fire simulation experience in a disaster experience center.

Description

Fire Directing System {FIRE DIRECTING SYSTEM}

The present invention (Disclosure) relates to a fire directing system, and specifically, by using a high-brightness laser irradiator and a fog injector to reproduce a situation in which flames and smoke actually occur, it is possible to effectively perform a fire simulation experience in a disaster experience center. It is about a fire directing system.

Herein, background information related to the present invention is provided, which does not necessarily mean known art (This section provides background information related to the present disclosure which is not necessarily prior art).

In general, various types of special effect devices are installed in disaster experience halls, movie studios, performance halls, wedding halls, event halls, and entertainment pubs to perform special effects that enhance the visual effect.

The above-described special effects may include, for example, flames, smoke, flames, waterfalls, and the like. In order to achieve a more dramatic effect, various devices may be provided to produce an effect such as actually burning a flame or flame.

In the past, for a special effect that produces the effect of a real flame or flame burning, the film or fiber is blown by air pressure, and when viewed from a distance by lighting the film or fiber, the flame or flame burns while flying. to make it look taller.

The conventional special effects as described above may look like fireworks at first glance, but there is a problem in that the sense of reality is lowered, and thus, there is a problem in that it is easily fed up.

In addition, the size of the flame (flame) is limited by the size of the fluttering material, so it is inevitably designed to be very small.

As described above, in the fire production through the conventionally presented special effects, the flame is only fluttering, and it does not match effectively with the effects such as smoke that can be seen in an actual flame. Since this is not possible, there is a problem in that it is difficult to produce an actual fire scene in a place where a fire is simulated, such as a disaster experience center that is increasing recently.

1. Korea Patent Publication No. 10-1259419 (Registered on April 24, 2013)

The present invention (Disclosure) aims to provide a fire directing system that can effectively perform a fire simulation experience in a disaster experience center by reproducing a situation in which flames and smoke are actually generated using a high-brightness laser irradiator and a fog injector. .

And, the present invention (Disclosure) has an object to provide a fire directing system that can experience a realistic fire situation by circulating heated air to the inside using a hot air fan inside the directing space.

In addition, the present invention (Disclosure) installs a high-brightness laser irradiator and a fog injector at the ignition point where the fire starts inside the presentation space to direct the fire to be ignited, so that the fire situation can be experienced more effectively. The purpose is to provide.

Herein, a general summary of the present invention is provided, which should not be construed as limiting the scope of the present invention (This section provides a general summary of the disclosure and is not a comprehensive disclosure of its full scope or all of its features).

In order to solve the above problems, a fire directing system according to any one aspect of various aspects describing the present invention includes a directing space for directing a fire; a first high-brightness laser irradiator for horizontally irradiating a high-brightness laser beam to the upper part of the rendering space; a first fog injector which is provided adjacent to the first high-intensity laser irradiator, and generates and injects fog into the irradiation area of the high-intensity laser beam; and a first circulator provided at the rear of the first fog sprayer and blowing the fog.

In the fire directing system according to an aspect of the invention, a hot air fan for supplying heating air to the interior space of the directing space; may further include.

In the fire directing system according to an aspect of the invention, the first high-brightness laser irradiator is provided in plurality adjacent to the first fog injector, and may be provided at different heights.

In a fire directing system according to an aspect of the present invention, the first fog sprayer may spread and spray the fog according to a preset spray angle.

In the fire directing system according to an aspect of the invention, the preset spraying angle may be in an angular range of 50-70° with respect to a vertical line in front of the first fog sprayer.

In a fire directing system according to an aspect of the invention, the hot air blower may supply the heating air heated to a temperature range of 35-45 °C.

In the fire directing system according to an aspect of the invention, the first high-brightness laser irradiator, the first fog sprayer, and the first circulator are provided in a plurality of sets, and are directed from the top of the two wall surfaces of the presentation space toward the center can be provided to do so.

In the fire directing system according to an aspect of the invention, a second high-brightness laser irradiator, a second fog sprayer, and a second circulator are provided on any one wall of the presentation space to produce an ignition point fire vertically upward. It may further include a fire directing unit.

According to the present invention, by using a high-brightness laser irradiator and a fog injector to reproduce a situation in which flames and smoke are actually generated, a fire simulation experience can be effectively performed in a disaster experience center.

And, according to the present invention, it is possible to experience a realistic fire situation by circulating heated air to the inside by using a hot air fan inside the directing space.

In addition, according to the present invention, by installing a high-intensity laser irradiator and a fog injector at the ignition point where the fire starts inside the production space to direct the fire to be ignited, the fire situation can be experienced more effectively.

1 is a block diagram of a fire directing system according to an embodiment of the present invention;
2 to 5 are diagrams for explaining a fire directing system according to an embodiment of the present invention.

Hereinafter, an embodiment in which the fire directing system according to the present invention is implemented will be described in detail with reference to the drawings.

However, it cannot be said that the intrinsic technical idea of the present invention is limited by the embodiments described below, and the following by those skilled in the art based on the intrinsic technical idea of the present invention It is revealed that the range that can be easily suggested as a method of substitution or modification of the embodiments described in is included.

In addition, since the terms used below are selected for convenience of description, in grasping the intrinsic technical idea of the present invention, they are not limited to the dictionary meaning and are appropriately interpreted as meanings consistent with the technical spirit of the present invention. it should be

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

1 is a block diagram of a fire directing system according to an embodiment of the present invention, and FIGS. 2 to 5 are diagrams for explaining a fire directing system according to an embodiment of the present invention.

1 to 5 , the fire directing system according to an embodiment of the present invention is a directing space 110 , a first high-brightness laser irradiator 120 , a first fog sprayer 130 , and a first circulator 140 . , the hot air blower 150, the ignition point fire directing unit 160, etc. may be included.

The directing space 110 is a space for directing fire, and may be provided in the form of a room of a certain size having four walls for fire directing and fire simulation experience, and lighting for fire directing is on. With /off function and with the lighting of the space turned off, the operation of laser beam irradiation, fog spraying, blowing, etc. in the upper ceiling of the presentation space 110, and the directing space 110 It is possible to perform an operation such as supply of hot air.

In the directing space 110, a holder 111 in which the first laser irradiator 120, the first fog injector 130 and the first circulator 140 are seated and fixedly installed in the vicinity of the upper ceiling may be provided, An escape door (not shown) is provided on one wall so that it can be used to reproduce escape in case of a fire.

The first high-brightness laser irradiator 120 includes, for example, a red LED, etc., by irradiating a high-brightness laser beam horizontally on the upper part of the rendering space 110, similar to a flame in the rendering space 110 such as a dark room. Since it is expressed in red, it is possible to effectively express a shape in which the flame spreads together with the fog sprayed through the first fog sprayer 130 .

A plurality of the first high-brightness laser irradiator 120 is provided adjacent to the first fog irradiator 130 on the upper portion of the cradle 111 of the directing space 110, and may be provided at different heights.

For example, as shown in FIGS. 2 to 4 , the first high-brightness laser irradiator 120 is to be installed together on a horizontal cradle 111 together with the first fog irradiator 130 and the first shuffler 140 . However, when the first high-brightness laser irradiator 120 is provided on both sides of the first fog injector 130, one of them may be provided at a position 9-11 cm higher or lower than the position of the other. .

Through this, it is possible to create a realistic fire scene by combining the red laser beam and the sprayed fog together, rather than when the red laser beam is irradiated by being installed at the same location.

The first fog sprayer 130 is provided adjacent to the first high luminance laser irradiator 120 , and generates and sprays fog into the irradiation area of the high luminance laser beam. By generating and spraying the red laser beam through the first high-brightness laser irradiator 120 to the area where the red laser beam is irradiated, it is possible to produce a realistic fire situation in which the red flame spreads.

The first fog sprayer 130 may spread the fog according to a preset spraying angle, and the preset spraying angle may be in an angular range of 50-70° with respect to the front vertical line of the first fog sprayer 130. there is.

For example, as shown in FIGS. 2 to 4 , the first fog sprayer 130 installed together on the horizontal cradle 111 together with the first high-brightness laser emitter 120 adjusts the first fog spray angle in the front. A cover 131 may be provided, and the first fog spraying angle control cover 131 has a relatively larger area toward the front while the communication portion connected to the main body of the first fog sprayer 130 has a relatively small area. It may be formed to be inclined outwardly to have a, and the shape may be provided in various shapes such as, for example, a circle, a square, and the like.

The fog sprayed through the first fog spray angle control cover 131 can be sprayed in a wide range, effectively creating a situation in which the flame actually spreads due to the fog sprayed widely into the area where the red laser beam is irradiated. can be reproduced.

The first circulator 140 is provided at the rear of the first fog injector 130 and blows the fog, and the first high-brightness laser irradiator 120 and the first fog injector 130 together with the horizontal holder 111 ), it is provided at the rear of the first fog sprayer 130 to blow the fog generated through the first fog sprayer 130 to a wider area.

The first circulator 140 may blow air in various ways as needed by using a DC motor. The first circulator 140 may rotate according to a preset rotation volume to blow air, or to perform different rotations in a state where a plurality of rotation volumes are set. It can be blown by rotating it in a way that changes the volume.

For example, if the rotation volume is 1, 2, 3, 4, 5, and the rotation is performed according to the preset rotation volume, the rotation volume can be set to 3 to rotate according to the rotation volume of 3, and a plurality of rotation volumes can be set. If set, you can set the rotation volume to 1, 3, 2, 5 to rotate in the order of 1, 3, 2, 5, 1, 3, 2, 5, etc. In this way, it is possible to create a more realistic fire situation due to the influence of the changing wind.

The first high-brightness laser irradiator 120 , the first fog injector 130 and the first circulator 140 as described above are provided in a plurality of sets, and as shown in FIGS. 3 and 4 , the rendering space 110 . ) may be provided to face toward the center from the top of the two wall surfaces.

For example, the first high-brightness laser irradiator 120 , the first fog sprayer 130 , and the first circulator 140 may be provided as one set on the horizontal holder 111 , and each set is a rendering space At least one set may be provided on the upper portions of the two wall surfaces of 110 .

By providing such a plurality of sets toward the central part in two directions of the directing space 110, it is possible to reproduce a flame situation with a more severe change than a flame generated in one set, and thereby As shown, it is possible to direct and reproduce a fire situation in which an actual flame spreads.

The hot air blower 150 supplies heating air to the inner space of the directing space 110, including an electric heater, and for example, the heating air heated to a temperature range of 35-45 ℃ inside the directing space 110. can be supplied to

The heated air of the hot air fan 150 can directly experience the heat caused by the flame in an actual fire situation, so that a more realistic fire situation can be produced and reproduced.

The ignition point fire directing unit 160 is provided with a second high-brightness laser irradiator 161, a second fog sprayer 162, and a second circulator 163 on any one wall surface of the directing space 110, so that the ignition point fires vertically upward. can be produced. Such an ignition point fire directing unit 160 may be provided inside the glass wall after installing the glass wall on any one wall.

Here, the second high-brightness laser irradiator 161 includes, for example, a red LED, etc., and is provided inside any one of the walls of the directing space 110 to irradiate a high-brightness laser beam vertically upward. 2 When a plurality of fog sprayers 162 are provided adjacent to each other, they may be provided spaced apart by a preset interval.

For example, when one laser irradiator is spaced apart from the glass wall by a first distance (eg, 5 cm, etc.), the other laser irradiator is a second distance (eg, relatively greater than the first distance) from the glass wall. For example, it may be installed to be spaced apart by 10 cm, etc.).

In addition, the second fog sprayer 162 is provided adjacent to the second high-brightness laser emitter 161, and can generate and spray fog into the irradiation area of the high-brightness laser beam, and spread the fog according to a preset spray angle. and the preset spraying angle may be in an angular range of 45-60° with respect to the vertical line upward of the second fog sprayer 162 .

In addition, the second circulator 163 is provided at the rear of the second fog sprayer 162 , and can blow the fog upward from the inside of the wall where the ignition point fire direction unit 160 is provided.

The second high luminance laser irradiator 161, the second fog injector 162 and the second circulator 163 are provided to face vertically upward, and as described above, the first high luminance laser irradiator 120, the first fog The injector 130 and the first circulator 130 differ only in that they are provided to face horizontally, and since they have similar configurations to each other, a detailed description thereof will be omitted.

Therefore, according to an embodiment of the present invention, by using a high-brightness laser irradiator and a fog injector to reproduce a situation in which flames and smoke are actually generated, a fire simulation experience can be effectively performed at the disaster experience center.

And, according to an embodiment of the present invention, it is possible to experience a realistic fire situation by circulating heated air to the inside using a hot air fan inside the directing space.

In addition, according to an embodiment of the present invention, by installing a high-brightness laser irradiator and a fog injector at the ignition point where the fire starts inside the production space to produce a fire, it is possible to experience a fire situation more effectively.

Claims (8)

a space for directing fire;
a first high-brightness laser irradiator for irradiating a high-brightness laser beam horizontally to the upper part of the rendering space;
a first fog sprayer which is provided adjacent to the first high-brightness laser irradiator and generates and sprays fog into the irradiation area of the high-brightness laser beam;
a first circulator provided at the rear of the first fog sprayer and blowing the fog;
a hot air fan for supplying heating air to the interior space of the directing space; and
A second high-brightness laser irradiator, a second fog sprayer, and a second circulator are provided on any one wall of the rendering space to produce an ignition point fire vertically upward;
In the directing space, an escape door is provided on one wall to reproduce escape during fire directing and fire simulation experience,
The first high-intensity laser irradiator, including a red LED, is provided with a plurality of adjacent to the first fog injector, and is provided at different heights, one of which is 9-11 cm higher or lower than the other position. provided on location,
The first fog sprayer diffuses the fog according to a preset spraying angle, wherein the preset spraying angle is in an angular range of 50-70° with respect to a vertical line in front of the first fog sprayer,
The first circulator rotates and blows according to a preset rotational volume, or rotates and blows in a manner that changes to different rotational volumes in a state where a plurality of rotational volumes are set,
The second high-intensity laser irradiator, when any one laser irradiator is spaced apart from the glass wall by a first distance, the other laser irradiator is provided such that the other laser irradiator is spaced apart by a second distance relatively farther than the first distance from the glass wall,
The second fog sprayer spreads spraying in an angular range of 45-60 ° with respect to the upper vertical line,
The hot air blower, a fire directing system for supplying the heating air heated to a temperature range of 35-45 ℃. delete delete delete delete delete The method according to claim 1,
The first high-brightness laser irradiator, the first fog sprayer, and the first circulator are provided in a plurality of sets, and the fire directing system is provided so as to be directed toward the center from the upper two walls of the directing space. delete

Images