KR20180089114A - Bodily sensation type Hologram image shooting device enabling motion tracking - Google Patents

Abstract

The present invention relates to a haptic-type hologram image shooting device capable of motion tracking. The hologram image shooting device according to the present invention includes a storage unit operating a shooting training process and processing as a coordinate value and storing the focus point of a laser beam emitted to the hologram image, a beam projector connected to the storage unit, formed in a box, and projecting an unexpected image at random or sequentially, a rear screen finishing the top of the box and receiving an image from the beam projector, a reflecting film installed at an angle of 45 degrees with respect to the rear screen and reflecting the image of the rear screen, a hologram image formed on the back surface of the reflecting film and displaying an image, a roller supported by a support and spaced apart from the hologram image by a predetermined distance, and at least one background image panel installed on the roller by a predetermined distance and providing the background of the hologram image.

Description

Field of the Invention [0001] The present invention relates to a hologram image shooting apparatus,

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a haptic-type hologram image shooting apparatus capable of motion tracking for realizing a virtual reality by using a hologram image.

In general, virtual experience devices that allow a user to experience situations that are difficult to implement in real situations, while users have the same feeling as in real situations in a virtual space simulating actual situations due to the development of multimedia technology and computer programming Is being developed.

For example, a pilot training of an aircraft or an indoor driving practice of a vehicle is performed in a simulated virtual space, and this method is also applied to sports / entertainment areas such as golf.

Simulation technology is being used to expand the field to be used because of advantages such as training cost reduction and accident prevention effect. Recently, it is also used for shooting shooting such as firearm shooting training and shooting game.

The conventional image shooting simulation is configured in such a manner as to detect that the laser emitted from the gun is incident on a target projected on the screen.

However, this image shooting simulation can not realize the same feeling situation as reality, and the reality is not good.

Therefore, a device or system capable of receiving a training substantially similar to the actual situation is indispensably required so that a trainee can feel the same as the actual situation, so that a proper situation can be dealt with when a real situation occurs.

In recent years, there has been a continuing need for a video shooting device having a high-level technology such as a trekking device that moves in accordance with a motion of a trainee.

Published Japanese Patent Application No. 2007-0040494 Published Patent No. 2012-0122626

Accordingly, the present invention has been developed in order to solve such a problem. Hologram technology is used to produce various situations similar to the actual shooting range in the virtual space, so as to grasp the same field experience, And to provide a haptic-type hologram image shooting apparatus capable of motion tracking capable of performing analysis and evaluation.

In addition, a haptic hologram image shot capable of motion tracking that enables the shooter to produce an atmosphere similar to the actual situation by making the composition and background substantially the same as the actual training site such as the smell of gunpowder and the background image selection of the hologram image inside the device Device. ?

In order to achieve the above object, the present invention provides a hologram image shooting apparatus capable of motion tracking, wherein the hologram image shooting apparatus is applied to a shooting training process, and the focus point of the laser emitted to the hologram image is processed as a coordinate value A flat display which is formed inside the box and connected to the storage unit to project images randomly or sequentially not expected and transmits the projected image to a reflecting film, An auxiliary screen for closing the upper part, a reflection film installed at an angle of 45 degrees with the auxiliary screen to reflect the image of the flat panel display, a hologram image formed on the back surface of the reflection film, Spaced apart and supported by supports It is provided one or more at a predetermined interval in the roller and the roller is characterized by including a background image panel to provide a background of the hologram image.

In addition, the hologram image capturing device operates a shooting training process, and includes a storage unit for processing the bright point of the laser emitted to the hologram image as a coordinate value and a storage unit for storing the coordinate value, and a random or sequential non- A rear screen formed on an upper portion of the beam projector for receiving an image; an auxiliary screen formed on an upper portion of the rear screen to close an upper portion of the box; And a hologram image formed on the rear surface of the reflective film, the hologram image being spaced from the hologram image by a predetermined distance and supported by a support, The background of the hologram image is set as And a background image panel for providing a background image.

In addition, the laser light source detection camera tracks the trajectory of the emitted laser when the shooter fires the laser using the laser shooting equipment, analyzes the shooting coordinates with the coordinates of the storage unit, and statistically processes the shooting analysis of the shooter And the like.

The hologram image may further include an audio device for outputting sound generated from the laser shooting equipment on both sides of the hologram image.

The background image panel includes different background images so that the image of the background image panel can be changed to a desired background by rotating the rollers.

The hologram image capturing device is installed in a dark room, and a fragrance of gunpowder and ammunition is generated in the dark room.

Further, the rear screen is formed of a flexible material.

In addition, an environmental reaction device for generating wind noise, smog, or the like is formed on one side of the hologram image.

Therefore, the present invention can perform the image shooting training exercise by using the hologram image, so that it is possible to exercise the atmosphere similar to the actual situation as much as possible.

In addition, it can prevent the gun accident that may occur in the actual training, and it is effective to improve the shooting ability by analyzing the shooting ability of the shooter.

In addition, it is possible to rotate and enlarge the hologram image freely by the implementation of the device capable of motion tracking while feeling the presence feeling by performing the shooting training by adding the actual background to the hologram image to the shooter Practical training is also possible.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1A is a block diagram showing a haptic sensation type hologram image shooting device capable of motion tracking according to the present invention; FIG.
FIG. 1B is a block diagram of a process in which motion trekking is performed. FIG.
BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a hologram-
FIG. 3 is a structural view showing a haptic-type hologram image shooting apparatus capable of motion tracking according to a second embodiment of the present invention.
FIG. 4 is a structural view showing a haptic-type hologram image shooting apparatus capable of motion tracking according to a third embodiment of the present invention.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. In the drawings, the same reference numerals are used to designate the same or similar components throughout the drawings.

In the following description of the present invention, a detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

FIG. 1B is a block diagram of a process of performing a motion trekking. FIG. 2 is a block diagram of a motion tracking system according to a first embodiment of the present invention. Fig. 2 is a structural view showing a possible haptic type hologram image shooting apparatus. FIG. 3 is a structural view showing a haptic-type hologram image shooting apparatus capable of motion tracking according to a second embodiment of the present invention, and FIG. 4 is a block diagram showing a hologram image shooting apparatus according to a third embodiment of the present invention, Fig.

Hereinafter, a first embodiment of the present invention will be described with reference to the drawings.

As shown in FIGS. 1A and 2, the configuration of the first embodiment of the sensory-temporal holographic image shooting apparatus 100 capable of motion tracking according to the present invention is as follows.

A storage unit 10 for operating the predetermined shooting training process and storing the coordinates of the trajectory of the laser beam launched at the hologram image,

In addition, the storage unit 10 is applied to a predetermined shooting training process, and a software program for image shooting is mounted, and the virtual reality (VR) hologram image shooting of the present invention is executed by executing the software program .

Further, the storage unit 10 performs a wired / wireless interface with the flat panel display 31, the laser shooting equipment 50, the laser light source detecting camera 80, and the reaction device 120.

In addition, a controller module 15 that distributes the power and the like necessary for effectively operating the storage unit 10 to each module and controls the laser shooting equipment 50 and the parts necessary for the operation of the trekking device 85, Is built in the storage unit 10.

The haptic device 100 of the present invention having the storage unit 10 having such a function is capable of motion tracking,

A flat panel display 31 formed inside the box 25 and connected to the storage unit 10 to project an image that is not expected at random or sequentially and transmits the projected image to the reflective film 40,

An auxiliary screen 35 formed on the upper part of the flat display 31 and formed on the box 25,

A reflective film 40 installed at an angle of 45 ° or 135 ° with respect to the auxiliary screen 35 to reflect the image of the flat panel display 31,

A hologram image formed on the rear surface of the reflective film 40,

A tracking device 85 formed on both sides of the upper portion of the auxiliary screen 35 to rotate, enlarge and reduce the hologram image,

A roller 130 separated from the hologram image by a predetermined distance and supported by a support 135,

 And a background image panel 140 installed in the roller 130 at a predetermined interval to provide a background of the hologram image.

The hologram imaging apparatus 100 according to the present invention includes a flat panel display 31 for receiving and outputting a video image signal to the interface of the storage unit 10 in the form of RGB, DVI, A reflection film 40 inclined at a predetermined angle with respect to the box 25 in which the flat panel display 31 is mounted reflects an image reflected through the flat panel display 31 and generates a hologram image Structure.

Hereinafter, a flat panel display (FPD) will be briefly described. A module type mounted on an arbitrary substrate using a plurality of LEDs (light emitting diodes) is a product that is widely used for lighting devices, TV backlights, It is to be understood that the present invention uses a flat panel display manufactured in the form of a chip.

Accordingly, the flat panel display 31 is connected to the storage unit 10 and emits various images (for example, shooting training programs such as clay shooting, real range shooting, target shooting, etc.) provided through the storage unit 10 Device.

2, the reflective film 40 is inclined to be inclined at an angle of 45 degrees with the auxiliary screen 35 formed on the upper portion of the flat panel display 31, So that the hologram image is generated in the air.

For reference, the reflective film 40 is in the form of a total reflection optical mirror in which a protective coating is applied after aluminum vacuum deposition of 3 to 5 times on the front surface.

Referring to FIG. 1B, a hologram image formed through the flat panel display 31 includes a tracking technology (a technique for recognizing a motion sensor of a person, etc., and rotating the hologram image, It is possible to rotate the image of the hologram image freely by making it possible to carry the motion sensor device 82 linked to the tracking device 85 on the body of the shooter or the laser shooting equipment 50, It is possible to enlarge and reduce the size of the image.

Therefore, it is possible to make the training that the shooter can be more lively and feeling through the shooting training. For reference, the motion sensor device 82 may be formed to be worn on an arm or the like, such as a spectacle (including a goggle), a headband, or a clock, so that the motion sensor device 82 can be worn on the eyes or head of a shooter.

Motion tracking, which is a process of rotating, enlarging and reducing a hologram image through a tracking device 85 connected to the motion sensor device 82, will be described with reference to FIG. 1B.

In the motion trekking, as shown in the figure, the motion sensor device 82 generates and outputs a motion detection signal by the direction switching motion of the shooter, and the hologram image detects the direction according to the direction of the shooter by the motion detection signal. That is, the motion sensor device 82 includes at least one position sensor, a gyro sensor, and an electromagnetic sensor. The motion sensor device 82 generates the omnidirectional motion sensing signal in real time according to the direction switching motion of the shooting person, And supplies it to the signal processing unit 83 (for reference, it is shown in FIG. 1B that the signal processing unit 83 is installed separately, which is for convenience of explanation).

The signal processor 83 recognizes the direction and direction of the movement of the shooter by the motion of the shooter or the movement of the shooter through the motion detection signal supplied from the motion sensor device 82, To the trekking device 85, and the trekking device 85, which has received the trekking device 85, can enlarge, reduce, and rotate the image. The trekking device 85 through the motion sensor device 82 reflecting the motion detection signal can enlarge and reduce the size of the hologram image. In other words, it is possible to reduce, enlarge and rotate the image so as to correspond to the direction or position of the shooting person, the motion of the laser shooting equipment 50, and the like.

With this configuration and operation, the trekking device 85 can directly control the size and rotation of the hologram image depicting the battlefield of the virtual reality so that the shooter can experience a realistic and dynamic experience.

 As shown in FIGS. 1A and 2, the flat panel display 31 is formed on the upper portion of the box 25, and serves to receive an image from the storage unit 10.

The auxiliary screen 35 formed on the upper portion of the flat panel display 31 closes the upper portion of the box 25 to prevent the foreign materials or the like from being inserted or introduced into the lower flat panel display 31.

Hereinafter, the characteristics of the reflective film 40, which is one of the constituent elements of the present invention, will be described. The reflective film 40 is characterized in that the reflective film 40 can be rolled or folded in the box 25 by using a hydraulic cylinder, a motor, or the like.

This feature utilizes a method of rotating by using a hinge (not shown) formed on the upper part of the box 25. Here, the detailed construction and description of the operation of opening or closing the reflective film 40 using a device such as a hydraulic cylinder or a motor installed in the box 25 are well known and will not be described here. Therefore, the reflective film 40 is a material such as a foil or the like, which can be spoken or unfolded. That is, it is a rotatable material having fluidity and elasticity.

Therefore, it is possible to fold the reflective film 40 in case of need to utilize the space. For reference, the angle of rotation of the reflective film 40 is preferably +/- 45 deg..

As shown in FIG. 2, the rollers 130 are spaced apart from the hologram image by a predetermined distance and supported by the supports 135. The background of the hologram image (for example, A description of a weapon, an enemy soldier, etc. to enable a battlefield atmosphere).

As shown, it is desirable to design the box 130 to be covered by the box 25 and only the background image panel 140 to be visible.

The background image panel 140 has different background images so that the shooter rotates the roller 130 by winding or rewinding the roller 130 to change the image of the background image panel 140 to a desired background It is. The background image panel 140 may be a liquid crystal display or an organic EL display to change the background image.

The rollers 130 shown in FIGS. 2, 3, and 4 may be configured as a regular tetrahedron by providing one background image panel 140 on four sides, for example, will be. (For reference, it should be noted that although the figure shows a tetrahedral roller, it is not limited thereto.)

By this configuration, it is possible to give the same feeling to reality as real, and it can bring a sense of reality to the shooter. The rotation such as winding or rewinding the roller 130 may be manually rotated using a tool such as a hand or a stick or an automatic method using a rotational force of a motor (not shown) It is available.

The automatic method may include, for example, setting the rotation speed of the motor to be changed once per 15 seconds, the background image panel 140 per 30 seconds, and the like. Detailed description of the configuration and the like of the device for rotating the roller 130 by means of a motor or the like is well known and will not be described.

In the case where the shooter performs the aiming shot to fire the laser toward the hologram image using the laser shooting equipment 50, the laser shooting equipment 50 may be equipped with a gyro sensor or an encoder sensor It is characterized by being freely moved in any direction before, after, left, and right. Here, since the above-described functions are well known in the art, a detailed description will be omitted.

The laser shooting equipment 50 includes a laser generating unit 51 for generating a laser beam through a barrel and a principle for generating a rebound by filling and discharging a gas for obtaining the same effect as the use of a real firearm during laser generation Or the principle of allowing the triggering of the elastic member to be triggered is also preferable. (Not shown) for generating a recoil in this case, and a trigger 53 for activating the laser generation unit 51 and the recoil generation unit.

The laser shooting device 50 pulls the trigger 53 to cause a laser beam to be emitted to the reflective film 40 by a laser module (not shown) (Not shown) and has characteristics of a visible laser diode having a wavelength of 680 to 1,400 nm. Here, when the wavelength is less than 680 nm, the light does not radiate properly and the effect is not observed. When the wavelength is more than 1,400 nm, the wavelength is not so good as to cause the eyes of the shooter to bend.

The type of the laser shooting equipment 50 may be a pistol, a rifle, a machine gun, or the like. Further, the laser shooting equipment 50 can adopt a variety of firearms that can be used for shooting training or gaming, and can be reduced in size and weight for easy use for children and women. Also, for accurate and precise shooting, it would be desirable to have a scale and an adjuster at the same point as the actual gun.

In addition, a locus sensor 54 is attached to the muzzle of the laser shooting equipment 50 to detect the locus of movement of the muzzle. The locus data detected through the locus sensor 54 is transmitted to the laser light source detection camera 80 and utilized as shot analysis data of the shooter.

In addition, an audio device 90 connected to the storage unit 10 and outputting sounds for generating various gun sounds generated by the laser shooting equipment 50 is provided. Here, it is preferable that the audio device 90 is installed by forming a support (not shown) on both sides adjacent to the position where the hologram image is created and described.

The laser light source detection camera 80 formed at a predetermined distance from the trekking device 85 tracks the trajectory of the fired laser when the shooter fires the laser toward the hologram image using the laser shooting equipment 50, The coordinates of the light source may be analyzed by analyzing the launching locus and the coordinates of the light source to analyze the shot and statistically processing the shot.

As shown, the laser light source detecting camera 80 may be spaced apart from the trekking device 85 by a predetermined distance in the horizontal direction so as to be installed adjacent to the laser shooting equipment 50 to track and photograph the same .

The laser light source detecting camera 80 is mounted with a laser filter (not shown) so that the detection camera 80 can detect the ambient light sources (e.g., the light source of the rear screen 30, , Incandescent lamps, etc.) so that only the laser light source of the laser shooting equipment 50 is recognized, so that it is impossible to capture the trigger point of the laser light source or capture the shooting point, or to misdirect the other point to the trigger point, The reliability of the hologram image shooting apparatus 100 is greatly improved.

In order to proceed with the shooting training, it is preferable that the hologram image shooting apparatus 100 of the present invention is installed in a dark room so that the reflected image is clearly and accurately displayed on the reflection film 40.

Furthermore, the incendiary and flame of gunpowder and ammunition are generated in the dark room, so that the shooting person performing the shooting training can feel the atmosphere of actually shooting in the shooting range, thereby providing a more lively atmosphere and realism It is. Here, the generation of the flame may cause the flame to evaporate when the thinner is poured into the bowl and the propane gas and oxygen are collected to generate the spark. The fragrance of gunpowder and ammunition is to smell by using flint incense in the market.

When the shooter fires by using the laser shooting equipment 50, the shooter personally carries the vibration device 120, which generates the vibration, with his / her clothing bag or the like. In the storage unit 10, The vibration device 120 can be driven to generate a vibration and a low-frequency vibration to the shooter, thereby realizing the fact that the shooting proceeds. Therefore, it is desirable that the vibration device 120 is designed to be a means such as a sensor.

Hereinafter, the operation of the first embodiment of the haptic sensation type hologram image shooting device 100 capable of motion tracking according to the present invention will be described.

First, an image signal is sent from the storage unit 10 to the flat panel display 31, so that a coordinate-projected image is displayed in a certain space.

Next, the flat panel display 31 outputs a video signal to be reflected by the reflection film 40 formed at an angle of about 45 degrees with the auxiliary screen 35 formed on the upper part, thereby displaying the hologram image in the air .

Then, the shooter performs the aiming shot toward the hologram coordinate image appearing in space using the laser shooting equipment 50.

 The shooter can reduce, enlarge and rotate the hologram image by using the tracking technology through the motion sensor device, so that it is possible to select the shooting for the desired part or place of the image. Thus, various shapes of the target can be selected according to the taste and preference of the shooter It is possible to carry out realistic shooting training which is similar to realistic reality in which a shooter is more realistic and excited by making a self-selected image to be generated in a holographic image.

The laser beam shot by the shooter passes through the hologram image represented by the reflection film 40, is reflected by the reflection film 40, and is again reflected back to the flat panel display 31.

Then, the laser light source detection camera 80 detects the laser light source irradiated to the flat panel display 31 by the reflection film 40, captures the image at a speed of 50 to 120 frames per second, and transmits it to the storage unit 10 do.

Next, the storage unit 10 forms a rectangular shape at four points based on the detected position signals of the upper, lower, left, and right sides detected through the laser light source detecting camera 80. [

Then, the coordinates are set by equally dividing the rectangular shape into 440 widths and 4 lengths at intervals of 640x480, 1024x768, and 2048x1024.

The above condition is generated so that the shooter is prepared to perform coordinate shooting on the hologram image in which the coordinate image generated by the storage unit 10 is spread. In this case, the laser light source is a laser light source, The laser beam is emitted through the laser beam source 50 and diverged.

In this manner, the laser light source detection camera 80 tracks the trajectory of the fired laser when the laser fired through the laser shooting equipment 50 advances toward the hologram image. At this time, the storage unit 10 drives the audio device 90 so that a shooting effect sound is emitted so as to feel the shooting atmosphere, thereby enhancing the reality of the shooter.

In addition, through the controller module 15 in the storage unit 10, the shooter triggers the reaction device 120 when the shooter triggers to cause the shooter to vibrate so that the actual training is realized.

In addition, as described above, the reaction device 120 is provided in a garment of a shooting person so that the shooting person can feel himself or herself, thereby realizing a sense of reality.

In the present invention, an environment reaction device 150 for emitting sound effects such as wind, smog (smoke, mist) and the like is provided on the background image panel 140 in order to direct the shooting field to be almost similar to the actual scene, (See Fig. 1)

It is preferable that the environmental reaction apparatus 150 is formed together with the audio apparatus 90 on one side of the hologram image. The description of a method for producing a sound effect suitable for a situation in the audio device 90 and the environment response device 150 is well known, and a detailed description thereof will be omitted.

In addition, the laser light source detecting camera 80 photographs the hologram image when the laser light source is irradiated, and transmits the captured image to the storage unit 10 immediately.

In this way, the locus of the launching point of the laser fired by the shooter through the laser shooting equipment 50 is generated in the storage unit 10 and compared with the set coordinates, and the shooter can perform the shooting analysis of the shooter.

The storage unit 10 stores coordinates transmitted from the laser light source detection camera 80 in the storage unit 10 and a position of a coordinate point passing through the hologram image And the hologram image expresses the changed state of the shooter due to the triggering. In order to deal with this, the storage unit 10 is formed with an analysis evaluation unit (not shown) for receiving the image through the laser light source detection camera 80 and analyzing the accuracy of the shooter.

Also, the laser light source detection camera 80 can statistically analyze the shooting contents of the shooter. This role is achieved through a computer module (not shown) built in the laser light source detection camera 50, and the shooting training results stored in the computer module are displayed as various images.

In other words, the shooting locus of the laser beam shot through the laser shooting equipment 50 is analyzed by the computer module, and compared with the coordinates of the target set in the hitting point and the hologram image, the shooting result is stored in the storage device built in the computer module .

Next, the shot from the laser shooting equipment 50 to the hologram image is converted into coordinate values in the computer module and stored, and the result is output from the output unit (not shown) of the storage unit 10. Therefore, it is possible to statistically process the shooting analysis of the shooter.

Hereinafter, the shooting characteristics of the shooter in the hologram image shooting apparatus 100 according to the present invention will be described.

When the shooter fires a shot with the laser shooting equipment 50, the movement of the muzzle is detected by the locus sensor 54 and converted into continuous coordinate data. The continuous coordinate data is transmitted to the laser light source detection camera 80. The locus data detects the movement of the muzzle detected by the movement of the shooter during aiming and triggering, When the trajectory data is analyzed and aimed and triggered, data of individual shooting characteristics, such as defective respiration of the shooter, badness of posture, etc., are calculated and transmitted to the storage unit 10 for storage You can.

Accordingly, the individual shooting characteristic data can be output individually through the output unit of the storage unit 10, or can be transmitted by means of a text message, a kakao talk, or the like, in cooperation with a smart phone possessed by each individual shooting person. The above-described transmission technology is well known in the art, so a detailed description will be omitted.

Therefore, the hologram image shooting apparatus 100 according to the present invention can express the evaluation of the training situation of the shooter through means such as Excel through the data, and can be used as a critique material afterwards.

As described above, the image shooting apparatus 100 according to the present invention provides the same sense of realism to a shooting person as shooting an actual firearm, so that the actual shooting and the sense of realism can be practiced and trained. It is possible to increase the completeness of the shooting training of the shooter by analyzing the shooting characteristics of the shooter and analyzing the factors of degrading the accuracy of the shooter and transmitting the instructions for correcting it to the shooter.

In addition, since the background image suitable for the shooting atmosphere is displayed together with the hologram image, realistic shooting training can be performed, and the environment of the reaction device 150 such as smog or wind noise can maximize the training environment There is also an advantage that the shooter can double the interest and fun of the shooting training in the shooting training which is hard and stiff.

Hereinafter, a second embodiment of the present invention will be described with reference to FIG. A description of the configuration and operational relationship of the first embodiment described above will be omitted.

In comparison with the first embodiment shown in Fig. 2, the second embodiment is replaced with a rear screen 30 in place of the flat panel display 31, in which the beam project 20 is installed.

A brief description of the rear screen 30 is a screen for projecting an image of a projection device such as a projector from the rear and illuminating it to the outside, and is also used as a promotional image in a place such as a shop. The flat screen display (not shown) is attached to the surface of the rear screen 30 included in the hologram image shooting apparatus 100 according to the present invention, so that bright brightness can be generated at night.

The configuration of the second embodiment is similar to that of the first embodiment except that the beam projector 20, which is connected to the storage unit 10 to project randomly or sequentially unexpected images and is formed inside the box 25,

A rear screen 30 formed on the beam projector 20 to receive an image,

An auxiliary screen 35 formed on the light emitting means 30 to close the upper portion of the box 25,

A reflective film 40 installed at an angle of 45 ° with the sub screen 35 to reflect the image of the light emitting means 30,

A hologram image formed on the rear surface of the reflective film 40,

And a tracking device 85 formed on both sides of the upper portion of the auxiliary screen 35 to rotate, enlarge and reduce the hologram image.

In addition, the image forming apparatus includes a roller 130 spaced apart from the holographic image by a support 135, a background image panel 150 installed at the roller 130 at a predetermined interval to provide a background of the holographic image, (140).

The second embodiment of the present invention includes a beam projector 20 for receiving and outputting a video output signal transmitted in the form of RGB, DVI or the like through an interface with the storage unit 10, A rear screen 30 which receives and reflects a video image output from the rear screen 30 and a reflective film 40 which is inclined at a predetermined angle with respect to the rear screen 30, It is a structure to generate by hologram image.

The beam projector 20 is connected to the storage unit 10 and emits various images (for example, shooting training programs such as clay shooting, real range shooting, target shooting, etc.) provided through the storage unit 10, (30).

2, the reflective film 40 is inclined to be inclined at an angle of 45 degrees with the auxiliary screen 35 formed on the upper portion of the rear screen 30, So that the hologram image is generated in the air. That is, the rear screen 30 is formed on the upper part of the beam project 20 and receives the image from the beam project 20.

The reflective film 40 formed on the rear screen 30 is made of a material such as a foil which can be twisted or unfolded and the rest is the same as the first embodiment described above .

The operation principle of the second embodiment of the present invention including the rear screen 30 is such that an image signal is transmitted from the storage unit 10 to the beam projector 20 so that an image in which coordinates are projected in a predetermined space is displayed.

Next, the beam projector 20 outputs the image signal to the rear screen 30, which is disposed on the upper side, to be reflected by the reflection film 40 formed at an angle of about 45 degrees, .

Then, the shooter performs the aiming shot toward the hologram coordinate image appearing in space using the laser shooting equipment 50. It is the same as in the first embodiment that the shooter can reduce, magnify and rotate the hologram image using the tracking technology through the motion sensor device, and select the shooting region or place of the desired image. The laser beam shot by the shooter passes through the hologram image represented by the reflection film 40, is reflected by the reflection film 40, and is reflected back to the rear screen 30. [

Then, the laser light source detection camera 80 detects the laser light source irradiated to the rear screen 30 by the reflection film 40, captures it, and transmits it to the storage unit 10 to set the coordinates.

When the shooting conditions are generated and the shooter is ready to perform the coordinate shooting on the expanded holographic image of the coordinate image generated by the storage unit 10, the laser light source diverges. The operation for the following operation is the same as that of the first embodiment described above.

Hereinafter, a third embodiment of the present invention will be described with reference to FIG.

In the third embodiment, as shown in the drawing, the flat panel display 31 is connected and formed with the rear screen 35 and the support member 33 with a certain distance from the box 25 and the rear screen 35 It is fixedly installed.

At this time, when the flat panel display 31 is installed at a height, the reflection film 40 is formed at an angle of 135 ° with the auxiliary screen 35 in the direction opposite to the first and second embodiments. That is, the flat panel display 31 is spaced a considerable distance from the box 25, and the image is irradiated downward.

A support member 33 for fixing the flat panel display 31 is formed on both sides of the flat panel display 31 and extends to the rear screen 30 above the box 25.

As shown in the figure, the reflective film 40 is fixed in a diagonal direction at one side of the flat panel display 31 to have a Z-shaped structure.

This is also because the flat panel display 31 sends an image so that an image projected in a certain space coordinate is displayed. Then, the flat panel display 31 outputs the image signal in a downward direction to be reflected by the reflection film 40 formed at an angle of 135 ° with the auxiliary screen 35, thereby displaying the hologram image in the air.

This is because the reflection film 40 is provided in a direction different from that of FIG. 2 (45 °) of the first embodiment and in the direction different from that of FIG. 3 (45 °) of the second embodiment. So that it can be oriented in the direction.

Thus, the shooter fires at the hologram coordinate image appearing in the space using the laser shooting equipment 50 and proceeds to the next procedure (shooting accuracy analysis, shooting evaluation, etc.).

The third embodiment of the present invention differs from the first embodiment only in the position of the flat panel display 31 and the reflective film 40, and the rest are the same, and thus a detailed description thereof will be omitted .

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, It is to be understood that all changes and modifications that come within the meaning and range of equivalency of the claims are to be embraced within their scope.

10: storage unit 20: beam projector 25: box
30: rear screen 31: flat panel display panel 33: supporting member
40: reflection film 50: laser shooting equipment 51: laser generating unit
53: Trigger 54: locus sensor 80: detection camera
82: Motion sensor device 83: Signal processing part 85: Tracking device 90: Audio device 100: Hologram image shooting device
120: Vibrating device 130: Roller 135: Support
140: background image panel 150: environmental reaction device

Claims (8)

In a haptic-type hologram image shooting apparatus capable of motion tracking,
The hologram image shooting apparatus 100 is applied to a shooting training process. The hologram image shooting apparatus 100 includes a storage unit 10 for processing the focus point of a laser emitted to a hologram image,
A flat display (31) formed in the box (25) and connected to the storage unit (10) to project random or sequential unexpected images, and irradiating the projected images with the reflective film (40);
An auxiliary screen (35) formed on the flat display (31) and closing an upper portion of the box (25);
A reflective film 40 installed at an angle of 45 ° or 135 ° with the sub screen 35 to reflect the image of the flat panel display 31;
A hologram image formed on the rear surface of the reflective film 40 to display an image;
A tracking device 85 formed on both sides of the upper portion of the auxiliary screen 35 and spaced apart from each other by a predetermined distance to rotate, enlarge and reduce the hologram image;
A roller 130 separated from the hologram image by a predetermined distance and supported by a support 135;
And a background image panel (140) provided on the roller (130) at a predetermined interval to provide a background of the hologram image.
In a haptic-type hologram image shooting apparatus capable of motion tracking,
The hologram image shooting apparatus 100 may include a storage unit 10 for operating a shooting training process, processing a bright point of a laser emitted to a hologram image as a coordinate value, and storing the coordinate value;
A beam projector 20 formed inside the box 25 and connected to the storage unit 10 to project random or sequentially unexpected images;
A rear screen (30) formed on the beam projector (20) and receiving an image;
An auxiliary screen (35) formed on the rear screen (30) and closing an upper portion of the box (25);
A reflective film 40 installed at an angle of 45 ° with the auxiliary screen 35 to reflect the image of the rear screen 30;
A hologram image formed on the rear surface of the reflective film 40 to display an image;
A tracking device 85 formed on both sides of the upper portion of the auxiliary screen 35 to rotate, enlarge and reduce the hologram image at a predetermined distance;
A roller 130 separated from the hologram image by a predetermined distance and supported by a support 135;
And a background image panel (140) provided on the roller (130) at a predetermined interval to provide a background of the hologram image.
3. The method according to claim 1 or 2,
When the shooter fires the laser using the laser shooting equipment 50 at a certain distance from the trekking device 85, the trajectory of the laser is tracked and the shooting coordinates are analyzed with the coordinates of the storage unit 10 And a laser light source detection camera (80) for statistically processing shooting analysis of the shooter is formed on the hologram.
3. The method according to claim 1 or 2,
Further comprising an audio device (90) for outputting sound generated from the laser shooting equipment (50) on both sides of the hologram image.
3. The method according to claim 1 or 2,
Wherein the hologram image shooting apparatus (100) is installed in a dark room, and a fragrance of gunpowder and ammunition is generated inside the darkroom.
3. The method according to claim 1 or 2,
Wherein the reflective film (40) is a rotatable material.
3. The method according to claim 1 or 2,
And an environmental reaction device (150) for generating wind noise or smog is formed on one side of the hologram image.
The method according to claim 1,
The flat display 31 is spaced apart from the rear screen 35 by a predetermined distance and is connected to the rear screen 35 by a supporting member 33 to irradiate the image downward. Type hologram image shooting device.

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