KR102481917B1 - Virtual reality-based interior simulation system - Google Patents

Abstract

The present invention provides a virtual reality-based interior simulation system, which includes: a server including functional units capable of realizing a virtual reality interior by storing and modifying material and space-related data; and a specially manufactured kiosk which transmits the implemented virtual reality interior.

Description

Virtual reality-based interior simulation system

The present invention relates to a virtual reality-based interior simulation system, and more particularly, to a server including functional units capable of realizing a virtual reality interior by storing and modifying materials and space-related data, and a specially manufactured interior that transmits the implemented virtual reality interior. It relates to a virtual reality-based interior simulation system equipped with a kiosk.

Due to the recent increase in interest in self-interior, the domestic market for home furnishing products, such as interior accessories and furniture, has also grown rapidly. In many cases, it is not simple to arrange furniture for efficient space utilization, and you may need to seek advice from experts or people around you. When faced with such difficulties, most people currently share information, opinions, and advice through personal SNS, or choose to directly call experts from interior design companies and seek advice. However, if a space is expressed in 2D media such as photos or videos, it is difficult to share accurate and detailed advice about the space because the actual feeling and situation of the space do not appear. In addition, when seeking advice from an expert, there are both time and physical hassles that the expert must visit the space in person.

Therefore, research and development of a platform that can give a sense of reality while constructing a house three-dimensionally before decorating or decorating a house is required.

Therefore, in the present invention, a customer directly modifies material and space-related information using a specially manufactured kiosk, an interior designer checks an image result reflecting this, builds functional units capable of bidirectional communication, and only a conventional designer can modify This is possible, so we would like to suggest a direction to solve the problems that were difficult to understand the customer's requirements.

The present invention has been made to solve the above problems, and an object of the present invention is to provide a virtual reality-based interior simulation system equipped with a server including functional units for storing and modifying material and space-related data.

Another object of the present invention is to provide a virtual reality-based interior simulation system equipped with a specially manufactured kiosk displaying virtual reality interior data.

Another object of the present invention is to provide a virtual reality-based interior simulation system equipped with a support unit supporting a kiosk.

Another object of the present invention is to provide a virtual reality-based interior simulation system equipped with a foreign matter removal unit that removes foreign matter from a kiosk display.

The object of the present invention is not limited to the tasks mentioned above, and other tasks not mentioned will be clearly understood by those skilled in the art from the following description.

A virtual reality-based interior simulation system according to an embodiment of the present invention for solving the above problems may include an interior server that transmits and receives virtual reality-based interior image data to and from a PC, a VR HMD, and a kiosk.

In one embodiment, the interior server may include an image DB unit for storing interior image data implemented in virtual reality, a material DB unit for extracting and storing material-related data from the interior image data, and space-related data within the interior image data. A space DB unit that extracts and stores , a material correction unit that requests modification of material-related data within the interior image data to the material DB unit, and a space correction unit that requests modification of space-related data within the interior image data from the space DB unit. , an image correction unit that reflects the data corrected by the material correction unit and the space correction unit in the image DB unit, the interior image data stored in the image DB unit to the PC, the VR HMD, and the It may include a video transmission unit that transmits to the kiosk.

In one embodiment, the kiosk displays the interior image data transmitted from the image transmission unit, and includes a display unit with rotating units 110a installed on both sides so as to be rotatable, and a module provided in a shape to protect the display unit. It may include a body, a support unit installed under the module body to support the kiosk from the ground, and a foreign matter removing unit installed inside the module body to remove foreign matter from the display unit.

In one embodiment, the support unit is installed on the lower portion of the module body, an upper plate disposed on the ground, a buffer support plate installed on the lower portion of the upper plate, and fastened to the lower portion of the buffer support plate, on the surface A buffer unit in which a plurality of buffer springs are installed at regular intervals, a buffer plate installed below the buffer unit to attenuate the impact applied to the kiosk, a support plate installed below the buffer plate, and inserted into the buffer plate It may include a plate fixing part fixing the buffer plate on the support plate, and an angle support part capable of adjusting an angle fastened by bolts at each corner of the support plate.

In one embodiment, the buffer plate, a plurality of reinforcing plates are inserted into the buffer plate to attenuate impact, and a cover plate installed on the surface of the buffer plate to fix the reinforcing plate and the plate fixing part so that they do not escape. can include

In one embodiment, the angle support portion is provided in a cylindrical shape, a first joint portion having a first hinge formed on a side surface, a second joint rotatably fastened by the first hinge, and a second hinge formed on the side surface It may include a third joint part having a cylindrical shape rotatably fastened by the second hinge.

In one embodiment, the support unit is inserted into the ground to fix the kiosk, dampens the impact applied to the kiosk by the buffer part and the buffer plate, and the angle support part to the first joint part to It may further include a feature of supporting the kiosk so that the kiosk is not separated from an impact when the third joint is bent and assisting the support of the angle support by a plurality of anchor bolts installed downward from the support plate.

In one embodiment, the foreign matter removal unit may include a gear rail part installed in a 'C' shape on the inner rear end surface of the module body, a first motor generating rotational force, and a support bracket fastened to the front end of the first motor. , A motor housing fastened to the rear surface of the support bracket and formed so that the first motor is embedded, a second motor inserted into both sides of the support bracket and generating rotational force, and fastened to both sides of the support bracket by bolts A bracket support portion supporting between the support bracket and the second motor, a first rotation shaft fastened to the front end of the first motor, rotated by receiving rotational force of the first motor, and having a first gear inserted into the circumferential portion; A bracket shaft installed on both sides of the front end of the support bracket to protect the first rotational shaft, a support shaft fastened to each of the bracket shafts by a plurality of support members, and fastened to each of the support shafts to maintain the bracket support portion and the support shaft. A sub-bracket for fixing, a vibration reducing member installed on the outer side of each of the sub-brackets to reduce vibration generated by rotation, a support for fixing each of the vibration reducing members, and inserted into the central circumference of the first rotating shaft to reduce vibration caused by rotation. 1 rotation shaft bracket for preventing the separation of the rotation shaft, the unit body forming a space in which the first rotation shaft and the rotation unit 470 are installed while fixing the support, the support shaft, and the rotation shaft bracket to the rear end surface, the first It may include a rotation member installed at the front end of the rotation shaft to transmit rotational force of the first rotation shaft, and a removal unit installed at the front end of the unit body to receive rotational force by the rotation member and rotate.

In one embodiment, the gear rail part is installed on the inner rear end surface of the module body, and is installed at a position corresponding to the external rail formed with an external gear along the circumference, and the circumference is formed smaller than the external rail. and an internal rail having an internal gear formed along a circumference, each of the second motors having a pinion gear fastened to the gear rail at a front end and rotating by receiving rotational force of the second motor, The pinion gear may include a feature of moving the foreign matter removal unit by rotating in mesh with the external gear and the internal gear.

In one embodiment, the rotation unit 470 has a second rotational shaft having a second shaft body formed such that the second gear meshes with the first gear of the first rotational shaft to rotate, and the third gear is of the second rotational shaft. It includes a third rotation shaft having a third shaft body formed to rotate in engagement with the second gear, and the removal unit includes a removal unit housing installed at the front end of the unit body and a front end of the removal unit housing. A removal member for removing foreign substances may be included.

In one embodiment, the foreign matter removal unit, when the display unit is rotated toward the inner rear end surface of the module body by the rotation unit (110a), each of the second motor generates a rotational force along the gear rail portion The pinion gear meshes with each other to move the foreign material removal unit, the first motor generates rotational force to rotate the first rotating shaft, and the first to third gears mesh and rotate to rotate the removal unit to rotate the foreign material in the display unit. It may further include a feature that removes.

According to the present invention, a virtual reality-based interior simulation system equipped with a server including functional units capable of realizing a virtual reality interior by storing and modifying material and space-related data, and a specially manufactured kiosk for transmitting the implemented virtual reality interior Provided. Effects according to the present invention are not limited by the contents exemplified above, and more various effects are included in the present invention.

1 illustrates an overall relationship diagram of a virtual reality-based interior simulation system according to the present invention.
2 is a diagram illustrating a relationship between interior servers of a virtual reality-based interior simulation system according to the present invention.
3 is a flowchart of a virtual reality-based interior simulation system according to the present invention.
3A illustrates a VR embodiment of a virtual reality-based interior simulation system according to the present invention.
3B shows another VR embodiment of the virtual reality-based interior simulation system according to the present invention.
4 illustrates an assembly diagram and an embodiment of a kiosk and a support unit of the virtual reality-based interior simulation system according to the present invention.
5 illustrates embodiments of a kiosk and a foreign matter removal unit of the virtual reality-based interior simulation system according to the present invention.

Hereinafter, various embodiments will be described in more detail with reference to the accompanying drawings. The embodiments described in this specification may be modified in various ways. Certain embodiments may be depicted in the drawings and described in detail in the detailed description. However, specific embodiments disclosed in the accompanying drawings are only intended to facilitate understanding of various embodiments. Therefore, the technical idea is not limited by the specific embodiments disclosed in the accompanying drawings, and it should be understood to include all equivalents or substitutes included in the spirit and technical scope of the invention.

Terms including ordinal numbers, such as first and second, may be used to describe various components, but these components are not limited by the above terms. The terminology described above is only used for the purpose of distinguishing one component from another.

In this specification, terms such as "comprise" or "having" are intended to indicate that there is a feature, number, step, operation, component, part, or combination thereof described in the specification, but one or more other features It should be understood that the presence or addition of numbers, steps, operations, components, parts, or combinations thereof is not precluded. It is understood that when an element is referred to as being "connected" or "connected" to another element, it may be directly connected or connected to the other element, but other elements may exist in the middle. It should be. On the other hand, when an element is referred to as “directly connected” or “directly connected” to another element, it should be understood that no other element exists in the middle.

Meanwhile, a “module” or “unit” for a component used in this specification performs at least one function or operation. And a "module" or "unit" may perform a function or operation by hardware, software, or a combination of hardware and software. In addition, a plurality of “modules” or “units” other than “modules” or “units” to be executed in specific hardware or to be executed in at least one processor may be integrated into at least one module. Singular expressions include plural expressions unless the context clearly dictates otherwise.

In addition, in describing the present invention, if it is determined that a detailed description of a related known function or configuration may unnecessarily obscure the subject matter of the present invention, the detailed description thereof will be abbreviated or omitted.

1 illustrates an overall relationship diagram of a virtual reality-based interior simulation system according to the present invention.

Referring to FIG. 1 , the virtual reality-based interior simulation system may include an interior server 10 that transmits and receives virtual reality-based interior image data to and from a PC (not shown), a VR HMD (not shown), and a kiosk 100. can

2 is a diagram showing the relationship between the interior servers 10 of the virtual reality-based interior simulation system according to the present invention.

Referring to FIG. 2, the interior server 10 includes an image DB unit 11, a material DB unit 12, a space DB unit 13, a material correction unit 14, a space correction unit 15, and an image correction unit. (16), and an image transmitter 17.

The image DB unit 11 may store interior image data implemented in virtual reality.

The material DB unit 12 may extract and store material related data from interior image data.

In this case, the material-related data refers to material items used in the interior, such as wallpaper, paint, tile, concrete, and wood.

The space DB unit 13 may extract and store space-related data from interior image data.

At this time, the space-related data means a visual concept constituting the space (ex. length, height, width, angle from the ground, etc.).

The material modifying unit 14 may request the material DB unit 12 to modify material related data in the interior image data.

In one embodiment, when the customer selects a desired material item through the kiosk 100 to be described later, the material modification unit 14 requests modification to the material DB unit 12 so that the material selected by the customer is displayed in the interior image in real time. turns into material.

The space correction unit 15 may request the space DB unit 13 to modify space-related data in the interior image data.

In one embodiment, when the customer uses the kiosk 100 to correct and input distance data between the inner wall and the outer wall, the space correction unit 15 requests correction from the space DB unit 13 to determine the distance in the interior image in real time. correction is made

The image correction unit 16 may reflect data corrected by the correction request of the material correction unit 14 and the space correction unit 15 to the image DB unit 11 .

The image transmission unit 17 may transmit interior image data stored in the image DB unit 11 to a PC (not shown), a VR HMD (not shown), and the kiosk 100 .

3 is a flowchart of a virtual reality-based interior simulation system according to the present invention.

Step S110: Create and store interior image data as a sample.

Step S120A: Material-related data is extracted and stored from the interior image data.

Step S130A: Request modification to the material-related data desired by the customer.

Step S120B: Extract and store space-related data from interior image data.

Step S130B: The customer requests modification to desired space-related data.

Step S140: Reflect modifications of material-related data and space-related data.

Step S150 : The interior image data reflecting the corrections is transmitted to a PC (not shown), a VR HMD (not shown), and the kiosk 100 .

Effects of the functional units according to an embodiment are as follows.

In the conventional interior simulation system, in order to reflect the customer's request, the customer spoke orally, or the designer guessed based on the previously produced sample and conducted the simulation.

However, in the conventional system, it is difficult to intuitively understand the customer's request, and a lot of time and money are consumed to finally recognize the interior desired by the customer.

Through the above functional units, when a customer modifies the material to a desired item in the sample interior image data using a PC (not shown), VR HMD (not shown), and the kiosk 100, and sets the desired space, the interior is reflected in real time. There is an effect that simulation production is possible.

In this way, the interior designer can easily grasp the intuitive judgment of the customer, so that it is possible to efficiently derive the agreement leading to the final interior desired by the customer.

3a and 3b illustrate VR embodiments of a virtual reality-based interior simulation system according to the present invention.

According to the flow chart described above, the virtual reality interior may be finally output to the VR HMD (not shown).

In particular, from residential spaces such as apartments and houses to working spaces such as offices, customers can indirectly experience interior spaces through virtual reality in real time with materials and space-related data preferred by customers.

As shown in the drawing, a new type of interior simulation is possible by experiencing the interior implemented in virtual reality through a PC and a kiosk as well as a VR HMD by reflecting customer requirements in real time.

4 shows an assembly view and an embodiment of the kiosk 100 and the support unit 200 of the virtual reality-based interior simulation system according to the present invention.

Referring to FIG. 4 , the kiosk 100 may include a display unit 110 , a module body 120 , and a support unit 200 .

The display unit 110 may be provided to display interior image data transmitted from the image transmission unit 17 .

In addition, the display unit 110 may have rotatable rotation units 110a installed on both sides of the display unit 110 to rotate 360 degrees in an up and down direction to protect the display unit 110 inside the module body 120 .

The module body 120 may have a shape in which the display unit 110 is embedded and protected.

The support unit 200 may be installed under the module body 120 to support the kiosk 100 from the ground.

In addition, the support unit 200 includes an upper plate 210, a buffer support plate 220, a buffer unit 230, a buffer plate 240, a support plate 250, a plate fixing unit 260, and an angle support unit 270. ) may be included.

The upper plate 210 is provided in a plate shape and installed below the module body 120, but may be disposed on the ground.

The buffer support plate 220 may be installed under the upper plate 210 .

The buffer unit 230 is fastened to the lower portion of the buffer support plate 220, and a plurality of buffer springs 231 may be installed on the surface at regular intervals.

An impact applied to the kiosk 100 may be damped by the plurality of buffer springs 231 .

The buffer plate 240 may be installed below the buffer unit 230 to attenuate an impact applied to the kiosk 100 .

In addition, the buffer plate 240 may include a reinforcing plate 241 and a cover plate 242 .

A plurality of reinforcing plates 241 may be inserted into the buffer plate 240 to attenuate an impact applied to the kiosk 100 .

The cover plate 242 may be installed on the surface of the buffer plate 240 to cover and fix the reinforcing plate 241 and the plate fixing part 260 so that they do not escape.

The support plate 250 may be installed under the buffer plate 240 .

The plate fixing part 260 may be inserted into the buffer plate 240 to fix the buffer plate 240 on the support plate 250 .

The angle support 270 may be fastened to each corner of the support plate 250 by means of bolts, and may be provided to enable angle adjustment.

In addition, the angle support portion 270 may include a first joint portion 271 , a second joint portion 272 , and a third joint portion 273 .

The first joint portion 271 may have a cylindrical shape, and a first hinge 271a may be formed on a side surface.

The second joint 272 is rotatably fastened by a first hinge 271a, and a second hinge 272a may be formed on a side surface.

The third joint portion 273 may have a circular column shape rotatably fastened by the second hinge 272a.

The assembly relationship according to the above configurations and the effect of the embodiment are described in detail as follows.

An upper plate 210 is installed below the module body 120 and is disposed on the ground.

A buffer support plate 220, a buffer part 230, a buffer plate 240, and a support plate 250 are sequentially assembled under the upper plate 210.

The angle support portion 270 is assembled at each corner of the support plate 250, and the second joint portion 272 is attached to the first hinge 271a of the first joint portion 271, The third joint 273 is rotatably assembled to the second hinge 272a.

Meanwhile, the plate fixing part 260 is assembled toward the support plate 250 at the inner center of the buffer plate 240 .

A plurality of reinforcing plates 241 are inserted into the buffer plate 240, and a cover plate 242 is assembled on the upper surface.

The support unit 200 may be inserted into the ground to secure the kiosk 100 .

At this time, the shock absorber 230, the buffer spring 231, and the reinforcing plate 241 of the buffer plate 240 attenuate the impact applied to the kiosk 100.

In addition, the first proximal portion 271 to the third proximal portion 273 of the angle support portion 270 are rotatable and are bent in multiple stages, thereby having an effect of fixing and supporting the kiosk 100 so as not to be separated from impact.

In addition, support of the angle support portion 270 may be assisted by a plurality of anchor bolts 280 installed downward from the support plate 250 .

5 illustrates embodiments of the kiosk 100 and the foreign matter removal unit 300 of the virtual reality-based interior simulation system according to the present invention.

Referring to FIG. 5 , the kiosk 100 may further include a foreign matter removal unit 300 installed inside the module body 120 to remove foreign matter from the display unit 110 .

The foreign matter removal unit 300 includes a gear rail part 310, a first motor 320, a support bracket 330, a motor housing 340, a second motor 350, a bracket support part 360, a first rotation shaft ( 370), bracket shaft 380, support shaft 390, sub bracket 400, vibration reducing member 410, support 420, rotating shaft bracket 430, unit body 440, rotating member 450 , and may include a removal unit 460 .

The gear rail unit 310 may be installed in a 'square' shape on the inner rear end surface of the module body 120 .

In addition, the gear rail unit 310 may include an outer rail 311 and an inner rail 312 .

The external rail 311 is installed on the inner rear end surface of the module body 120, and an external gear 311a may be formed along the circumference.

The inner rail 312 is installed at a position corresponding to the outer rail 311, has a circumferential portion smaller than that of the outer rail 311, and an internal gear 312a may be formed along the circumferential portion.

The first motor 320 may be provided to generate rotational force.

The support bracket 330 may be fastened to the front end of the first motor 320 .

At this time, the support bracket 330 may be provided in a multi-stage bent shape alternately in 'a' and 'b' shapes.

The motor housing 340 is fastened to the rear surface of the support bracket 330 and may be formed such that the first motor 320 is embedded therein.

The second motor 350 may be inserted into both sides of the support bracket 330 and may be provided to generate rotational force.

In addition, each of the second motors 350 is provided with a pinion gear 351 at the front end, and the pinion gear 351 is coupled to the gear rail unit 310 and receives the rotational force of the second motor 350 to form a gear. It may be provided to rotate along the rail unit 310 .

In addition, the pinion gear 351 may rotate while meshing with the external gear 311a and the internal gear 312a to move the foreign material removal unit 300 along the gear rail unit 310 .

The bracket support part 360 may be fastened to both sides of the support bracket 330 by means of bolts to support between the support bracket 330 and the second motor 350 .

At this time, the bracket support 360 is fastened by interlocking 'b' and 'b' shapes.

The first rotational shaft 370 may be coupled to the front end of the first motor 320 to rotate by receiving the rotational force of the first motor 320 .

In addition, a first gear 371 is inserted into the circumferential portion of the first rotating shaft 370 to rotate in engagement with a rotating portion 470 to be described later.

The bracket shaft 380 may be installed on both sides of the front end of the support bracket 330 to protect the first rotational shaft 370 .

At this time, the first rotation shaft 370 is disposed between the two bracket shafts 380.

The support shaft 390 may be fastened to each of the bracket shafts 380 by a plurality of support members 391 .

The sub-bracket 400 may be provided to fix the bracket support 360 and the support shaft 390 by being fastened to each of the support shafts 390 .

The vibration reducing member 410 may be installed on an outer portion of each sub-bracket 400 to reduce vibration generated by rotation.

The support 420 may be installed on the rear end surface of the unit body 440 to fix each of the vibration reducing members 410 .

The rotating shaft bracket 430 is inserted into the central circumference of the first rotating shaft 370 and fastened to the rear central portion of the unit body 440 to prevent separation of the first rotating shaft 370 .

The unit body 440 is provided to form a space in which the first rotation shaft 370 and the rotation unit 470 are installed while fixing the support 420, the support shaft 390, and the rotation shaft bracket 430 to the rear end surface. can

In this case, the rotation unit 470 may include a second rotation shaft 471 and a third rotation shaft 472 .

The second rotational shaft 471 is provided with a second shaft body 471b. The second shaft body 471b rotates by engaging the second gear 471a with the first gear 371 of the first rotational shaft 370. can be formed

The third rotational shaft 472 is provided with a third shaft body 472b. The third shaft body 472b rotates by engaging the third gear 472a with the second gear 471a of the second rotational shaft 471. can be formed

At this time, the second rotational shaft 471, the second shaft body 471b, the second gear 471a, the third rotational shaft 472, the third shaft body 472b, the third gear 472a, etc. are shown in the drawing. A plurality of dogs may be formed as described, but is not limited thereto.

The rotating member 450 may be provided to transmit rotational force of the first rotating shaft 370 by being installed at the front end of the first rotating shaft 370 .

The removal unit 460 may be installed at the front end of the unit body 440 and rotated by receiving rotational force by the rotating member 450 .

At this time, the removal unit 460 may include a removal unit housing 461 installed at the front end of the unit body 440 .

In addition, the removal unit 460 may further include a removal member 462 installed at the front end of the removal unit housing 461 to remove foreign substances.

The assembly relationship according to the above configurations and the effect of the embodiment are described in detail as follows.

The first motor 320 is assembled at the center of the support bracket 330, and the motor housing 340 is assembled at the rear end to protect the first motor 320.

A second motor 350 having a pinion gear 351 assembled at the front end is assembled to both sides of the support bracket 330, respectively.

At this time, the pinion gear 351 meshes with the external gear 311a and the internal gear 312a of the gear rail unit 310 and is assembled.

Bracket support parts 360 fastened with bolts are disposed on both sides of the central part of the support bracket 330, respectively.

The first rotation shaft 370 is assembled at the front end of the first motor 320 while the rotation shaft bracket 430, the first gear 371, and the rotation member 450 are assembled, respectively.

A bracket shaft 380, a plurality of support members 391, a support shaft 390, a sub-bracket 400, and a vibration reducing member 410 on both sides of the first rotational shaft 370 from the center of the support bracket 330 And the support 420 is placed and assembled.

At the same time, the support 420 and the bracket shaft 380 are also assembled to the rear end of the unit body 440, respectively.

A rotating shaft bracket 430 is assembled at the center of the rear end of the unit body 440 .

The inside of the unit body 440 is engaged with the first gear 371 of the first rotating shaft 370 to assemble the rotation unit 470 .

The rotating part 470 includes a second rotation shaft 471 having a second gear 471a meshed with the first gear 371 and a third rotation shaft 472 having a third gear 472a meshed with the second gear 471a. A plurality of these can be assembled.

The removal unit 460 is rotatably assembled by the front end of the unit body 440, particularly the rotating member 450.

In order for the foreign matter removal unit 300 to operate, the rotation unit 110a of the display unit 110 rotates the display unit 110 by 360 degrees so that the display unit 110 is disposed toward the inside of the module body 120.

Each of the second motors 350 generates rotational force so that each of the pinion gears 351 may move the foreign material removal unit 300 clockwise or counterclockwise along the gear rail unit 310 .

At the same time, the first motor 320 generates rotational force so that the first rotational shaft 370 rotates, and the first gear 371 to the third gear 472a mesh and rotate so that the removal unit 460 rotates and the removal member ( 462 has an effect of removing foreign substances from the surface of the display unit 110 .

At this time, rotational vibration generated when the removal member 462 comes into contact with the display has an effect of being reduced by the vibration reducing member 410 .

Although the preferred embodiments of the present invention have been shown and described above, the present invention is not limited to the specific embodiments described above, and is common in the art to which the present invention pertains without departing from the gist of the present invention claimed in the claims. Of course, various modifications are possible by those with knowledge of, and these modifications should not be individually understood from the technical spirit or prospect of the present invention.

Interior Server(10)
Video DB section (11)
Material DB section (12)
Space DB unit (13)
Material Correction Department (14)
Space correction unit (15)
Image correction unit (16)
Video transmitter (17)
Kiosk(100)
display unit 110
Rotating part (110a)
module body (120)
support unit 200
Top plate (210)
buffer support plate (220)
Buffer part (230)
Buffer Spring(231)
buffer plate(240)
Reinforcement plate(241)
cover plate(242)
support plate(250)
Plate fixing part (260)
Angle support (270)
1st knuckle 271
First hinge 271a
Second knuckle (272)
Second hinge 272a
Third segment 273
Anchor bolt(280)
Foreign matter removal unit (300)
Gear rail part (310)
Outer Rail(311)
external gear 311a
Inner Rail(312)
internal gear 312a
First motor (320)
Support Bracket(330)
motor housing(340)
Second motor (350)
Pinion Gear(351)
Bracket support (360)
1st axis of rotation (370)
1st gear (371)
Bracket axis(380)
support shaft (390)
support member(391)
Sub bracket(400)
Vibration reducing member (410)
Support (420)
Axis Bracket (430)
unit body(440)
Rotating member (450)
Removal (460)
Removal housing (461)
Removal member (462)
rotating part (470)
Second axis of rotation (471)
Second gear (471a)
Second axis body (471b)
Third axis of rotation (472)
Third gear (472a)
Third axis body (472b)

Claims (3)

An interior server that transmits and receives virtual reality-based interior image data to and from PCs, VR HMDs, and kiosks;
In the virtual reality-based interior simulation system comprising a,
The interior server,
an image DB unit for storing interior image data implemented in virtual reality;
a material DB unit for extracting and storing material-related data from the interior image data;
a space DB unit extracting and storing space-related data from the interior image data;
a material modification unit requesting modification of material-related data in the interior image data to a material DB unit;
a space correction unit requesting a space DB unit to modify space-related data within the interior image data;
an image correction unit for reflecting data corrected by the material correction unit and the space correction unit to the image DB unit;
an image transmission unit transmitting the interior image data stored in the image DB unit to the PC, the VR HMD, and the kiosk;
including,
The kiosk,
a display unit which displays the interior image data transmitted from the image transmission unit and has rotating units 110a installed on both sides so as to be rotatable;
a module body provided in a shape in which the display unit is embedded and protected;
a support unit installed under the module body to support the kiosk from the ground;
a foreign matter removal unit installed inside the module body to remove foreign matter from the display unit;
including,
The support unit is
an upper plate installed under the module body and disposed on the ground;
a buffer support plate installed under the upper plate;
a buffer unit fastened to a lower portion of the buffer support plate and having a plurality of buffer springs spaced apart from each other on the surface;
a buffer plate installed under the buffer unit to attenuate an impact applied to the kiosk;
a support plate installed under the buffer plate;
a plate fixing unit inserted into the buffer plate and fixing the buffer plate on the support plate;
An angle support portion capable of adjusting an angle fastened by bolts at each corner of the support plate;
including,
The buffer plate,
A plurality of reinforcing plates inserted into the buffer plate to attenuate impact;
a cover plate installed on a surface of the buffer plate and fixing the reinforcing plate and the plate fixing part so that they do not escape;
including,
The angle support,
A first joint having a cylindrical shape and having a first hinge formed on a side surface;
a second joint portion rotatably fastened by the first hinge and having a second hinge formed on a side surface;
a third joint having a cylindrical shape rotatably fastened by the second hinge;
including,
The support unit is
inserted into the ground to fix the kiosk;
The shock applied to the kiosk is attenuated by the buffer unit and the buffer plate;
Supporting the kiosk so that the kiosk is not separated from the impact by bending the first to third proximal portions of the angle support,
Further comprising a feature of assisting the support of the angle support by a plurality of anchor bolts installed downward from the support plate,
The foreign matter removal unit,
a gear rail part installed in a 'C' shape on the inner rear end surface of the module body;
a first motor generating rotational force;
a support bracket fastened to the front end of the first motor;
a motor housing fastened to a rear surface of the support bracket and configured to include the first motor therein;
a second motor inserted into both sides of the support bracket and generating rotational force;
a bracket support portion fastened to both side surfaces of the support bracket by means of bolts to support between the support bracket and the second motor;
a first rotational shaft fastened to the front end of the first motor, rotated by receiving rotational force of the first motor, and having a first gear inserted into the circumferential portion;
Bracket shafts installed on both sides of the front end of the support bracket to protect the first rotational shaft;
a support shaft fastened to each of the bracket shafts by a plurality of support members;
sub-brackets fastened to each of the support shafts to fix the bracket support portion and the support shaft;
a vibration reducing member installed on an outer portion of each of the sub-brackets to reduce vibration generated by rotation;
a support for fixing each of the vibration reducing members;
a rotation shaft bracket inserted into the central circumference of the first rotation shaft to prevent separation of the first rotation shaft;
a unit body fixing the support, the support shaft, and the rotation shaft bracket to a rear end surface and forming a space in which the first rotation shaft and the rotation unit 470 are installed;
a rotating member installed at the front end of the first rotating shaft to transmit rotational force of the first rotating shaft;
a removal unit installed at the front end of the unit body and rotated by receiving rotational force from the rotation member;
including,
The gear rail part,
an external rail installed on the inner rear end surface of the module body and having external gears formed along the circumference;
an inner rail installed at a position corresponding to the outer rail, having a circumference smaller than that of the outer rail, and having an internal gear formed along the circumference;
including,
Each of the second motors,
A pinion gear fastened to the gear rail at the front end and rotating by receiving the rotational force of the second motor is provided,
The pinion gear,
And a feature of moving the foreign matter removal unit by rotating in engagement with the external gear and the internal gear,
The rotating part 470,
a second rotational shaft provided with a second shaft body formed such that a second gear rotates by meshing with the first gear of the first rotational shaft;
a third rotational shaft provided with a third shaft body formed such that a third gear engages with and rotates the second gear of the second rotational shaft;
including,
the removal unit,
a removal unit housing installed at the front end of the unit body;
a removal member installed at the front end of the removal unit housing to remove foreign substances;
including,
The foreign matter removal unit,
When the display unit is rotated toward the inner rear end surface of the module body by the rotation unit 110a,
Each of the second motors generates rotational force to move the foreign matter removal unit by meshing with the pinion gear along the gear rail;
The first motor generates a rotational force so that the first rotational shaft rotates, and the first to third gears engage and rotate, thereby rotating the removal unit to remove foreign substances from the display unit, based on virtual reality. Interior simulation system. delete delete

Images