KR20100091054A - Light weight wall for variable type wall - Google Patents

Abstract

PURPOSE: A variable lightweight wall is provided to easily create a desired space by being easily installed and dismantled and to reduce construction costs by recycling the wall. CONSTITUTION: A variable lightweight wall comprises a wall(100), a ceiling member(200), and a height controller(300). The wall is formed in order to variously create an indoor space. The ceiling member is fixed to a ceiling in order to connect the wall and the ceiling. The height controller controls the height of the wall so that the wall can be fixed to the ceiling member and has a support member(310), an elevating member(320), and a height control member.

Description

LIGHT WEIGHT WALL FOR VARIABLE TYPE WALL}

The present invention relates to a variable lightweight wall, and in particular, easy to install and dismantle the wall through the block and light weight, it is possible to change the interior space according to the lifestyle of the occupant, easy to remodel through recycling, installation The present invention relates to a variable lightweight wall that can maintain a stable and solid fixed state afterwards.

In general, the wall is widely used to effectively partition a building, for example, a school, an office, an exhibition hall, a resting room, a cultural space, a residential space and a workplace, or to effectively establish a space for office work. The wet wall construction method which piles up bricks, and the dry wall construction method which is constructed by a partition or a panel are mainly applied.

In particular, unlike the wet wall by the wet method of building blocks or bricks, drywall is lightweight and can be installed without burdening the building.

Such drywall is installed only up to a predetermined height from the floor so that not only the beauty of the exterior and the ease of installation and disassembly in terms of use, but also the whole space can be divided into several spaces to improve the environment of living and office work, or Or it is installed to reach from the floor to the ceiling.

However, when the existing drywall is constructed to reach the floor to the ceiling, the lower part is fixed to be embedded in the floor plaster by assembling gypsum board on the stud and runner, and the upper part is fixed to the ceiling by anchor bolts or the like. Not only is the disassembly of the wall difficult, but also breakage occurs, and thus there is a problem that it is difficult to reuse the wall when remodeling.

In addition, the drywall is a steel surface lacks the finish and design beauty is deteriorated, it is difficult to install and release according to the change of the interior space by weight, the construction cost and sale price of the building to increase due to the high price There is a problem.

On the other hand, drywall had the disadvantage of having to prepare a wall of various specifications according to the height from the floor to the ceiling, and recently, to solve this problem, a wall that can be adjusted in height according to the height from the floor to the ceiling has been proposed.

However, since the existing wall having the height adjusting structure adopts a method of adjusting the height of the wall by turning the height adjusting screw provided on the lower part, the wall is performed under the weight of the wall having the relatively heavy weight. There was a problem in adjusting the height of the wall because it had to be.

In addition, the dry wall has a problem that it is difficult to transport the wall having a predetermined volume and weight when the wall is installed and remodeled according to the change of the interior space according to the lifestyle of the occupant.

The present invention has been made to solve the problems of the prior art as described above, the object of the present invention is to create an interior space suitable for the lifestyle of the occupant with the convenience of construction when installing and dismantling the wall through blocking and light weight. According to the present invention, there is provided a variable light weight wall that is easy to change, easy to remodel through recycling of installed walls, and maintains a stable and stable fixed state after installation.

In order to solve the above technical problem, the present invention,

Walls formed to partition the interior space of the building in various ways;

A ceiling member fixedly coupled to the ceiling via a fixing means so that the wall and the ceiling are connected to each other, and an upper portion of the wall connected to and fixed to the ceiling; And

A supporting member provided to contact the bottom of the wall, a lifting member coupled to a lower portion of the wall to be installed on the upper portion of the supporting member so as to be movable up and down, and a supporting member and an elevating member to elevate the elevating member. Consists of a height adjustment member provided between, the height adjustment unit for adjusting the height of the wall so that the wall is connected and fixed to the ceiling member.

In addition, the wall is an inner frame formed by forming a rectangular frame;

An outer frame coupled to form a frame around the inner frame; And

And a panel member coupled to the hollow region of the inner frame and the outer frame.

In addition, the panel member is a glass fiber filler disposed in the core of the inner frame;

A plywood member coupled to the inner frame to be disposed outside the glass fiber filler and formed of an MD board or a particle board;

A gypsum board plate coupled to at least one outer frame to be disposed outside the plywood member; And

It is composed of; a paper medium to the paper surface of the gypsum board.

In addition, the ceiling member is provided with a coupling groove opening in the lower portion, the upper portion of the wall is provided with a coupling projection, the coupling projection is to be coupled to the coupling groove when the wall is raised by the height adjustment.

In addition, the first reinforcing member is provided in the longitudinal direction of both side walls in the interior of the ceiling member, both ends are fixed to both side walls of the ceiling member so as to be orthogonal to these between the first reinforcing member and the first reinforcing member and At least one second reinforcing member to be connected is provided.

In addition, molding members for finishing are provided on both sides of the ceiling member in the longitudinal direction.

In addition, the molding member is fixed by any one of the adhesive means selected from high frequency bonding, adhesives, screws and the like.

In addition, the present invention

Wall body formed of one or more blocks to variously partition the interior space of the building;

A connecting plate for connecting the at least one wall to be stacked;

A ceiling member fixedly coupled to the ceiling via a fixing means so that the wall and the ceiling are connected to each other, and an upper portion of the wall connected to and fixed to the ceiling; And

A supporting member provided to contact the bottom of the wall, a lifting member which is installed on the upper portion of the supporting member so as to be lifted up and down, and coupled to the lower portion of the wall, and the supporting member and the lifting member to lift the lifting member. Consists of a height adjustment member provided between, the height adjustment unit for adjusting the height of the wall so that the wall is connected and fixed to the ceiling member.

In addition, the wall is a frame member formed to form a rectangular frame;

Reinforcing member for reinforcing the interior of the frame member; And

And a closing plate coupled to the front and rear surfaces of the frame member so that the fitting groove is formed around the frame member.

In addition, the reinforcing members are formed to be coupled to each other to form a plurality of diaphragm lattice structure.

In addition, the reinforcing member is formed of styrofoam.

In addition, when one or more walls are stacked by a connecting plate, sidewall reinforcing members for reinforcing their connection are coupled to both sidewalls of the wall.

In addition, the upper portion of the support member is formed with a guide wall protruding upwards, the lifting member is formed so that the lower portion is opened so that the guide wall is received therein, the lifting member is supported by the height adjustment member when lifting It is guided by the guide wall of the member.

In addition, the inner longitudinal direction both sides of the elevating member is provided with wheels for transporting the wall.

In addition, the height adjustment member is the first and second spiral shafts which are vertically fixed so as to pass through the first and second housings provided inside the elevating member on both sides of the upper longitudinal direction of the support member;

First and second driven gears accommodated in the first and second housings, respectively, screwed to the first and second spiral shafts, and being elevated in a longitudinal direction of the first and second spiral shafts by rotation;

A drive gear installed in the first housing to be engaged with the first driven gear and having a handle engaging portion for engaging the handle on one side thereof; And

Gears disposed between the first and second housings, the gears being formed at both ends of the first and second driven gears to be engaged with the first and second driven gears, and are configured to transmit the rotational force of the first driven gear rotated by the driving gears. It is composed of a transmission shaft.

In addition, the threaded portion of the first driven gear is formed with a right screw, and the threaded portion of the second driven gear is formed with a left screw.

In addition, the height adjusting member is provided with a stopper device for controlling the height according to the elevating member of the elevating member, the stopper device is arranged on both sides of the elevating member at the same interval as the elevating length, the plurality of power transmission shaft is installed through Hang of; And

At the same time, the locking step is screwed to any one of the locking end and the power transmission shaft at the same time, and one end is formed with a locking step located between the locking end, and the locking step is freely moved in the longitudinal direction of the power transmission shaft when the elevating member is elevated. It is configured as; a locking knob for locking and release.

In addition, a plurality of grooves are formed on both sidewall surfaces of the wall at regular intervals along the longitudinal direction, and the grooves are provided with a wall connecting member having a plurality of catching protrusions on one side thereof so as to be engaged with each other when connecting the walls laterally. The wall is laterally connected by a locking structure between the wall connecting body.

In addition, a wall member for connecting and fixing both side walls of the wall to the wall is provided, a plurality of grooves are formed on the corresponding side of the wall member at regular intervals along the longitudinal direction, the groove is connected to the wall A sieve is provided so that the wall is connected to and fixed to the wall member by a locking structure between the wall connecting bodies.

In addition, the wall is further provided with an entrance.

In addition, the fixing means is made of an anchor bolt.

In addition, the fixing means is composed of a pair of Velcro tape.

Variable light weight wall according to the present invention has a useful effect that can be easily changed in the interior space of the occupant by the installation and dismantling of the wall, so that the residents can easily create a space according to the lifestyle.

In addition, since the damage of the product due to the dismantling of the wall is minimized and can be recycled when remodeling, it can contribute to revitalization of remodeling and lower the construction cost and sale price of the building.

In addition, the wall is fixed to the ceiling by the height adjustment method can be easily fixed and dismantle the wall, there is an effect that can maintain a stable and solid fixed state when installing the wall.

In addition, each component of the wall is made of a light and rigid material has the effect of improving the weight and durability.

Hereinafter, with reference to the accompanying drawings, the variable lightweight wall according to each preferred embodiment of the present invention will be described in detail as follows.

The variable lightweight wall according to the first embodiment of the present invention, as shown in Figures 1 to 6, the wall 100 formed to variously partition the interior space of the building, the wall 100 and the ceiling (1) ) Is connected to the ceiling (1) by means of fixing means to be connected to the ceiling member 200, the upper portion of the wall 100 is connected to the fixed and the lower portion of the wall 100 is provided and the wall 100 is It is composed of a height adjustment unit 300 for adjusting the height of the wall 100 to be connected to the ceiling (1) fixed via the ceiling member 200.

To describe this in more detail, the wall 100 serves to partition the interior space in various ways, the inner frame 102 is formed in a rectangular frame and is coupled to form a frame around the inner frame 102 The outer frame 104 and the panel member 108 coupled to the inner frame 102 and the hollow region of the outer frame 104.

The inner frame 102 is formed by combining a plurality of frames to form a rectangular frame. The inner frame 102 may be formed of a metal or wood such as aluminum for weight reduction, but is not necessarily limited thereto.

The outer frame 104 is formed by coupling a plurality of frames to each other to form a frame along the circumference of the inner frame 102. The interior of the outer frame 104 is provided with a seating groove 105 formed along the inner circumference. The seating groove 105 is fixed to the edge of the inner frame 102 to prevent movement, and after being seated, it is fixed to be integrated with the outer frame 104 by known fixing means, for example, fixing bolts.

In addition, the upper portion of the outer frame 104, the plate-like coupling projection 106 for connecting with the ceiling member 200 is coupled by a known coupling means.

The outer frame 104 may be formed of the same material as the inner frame 102 for weight reduction, but is not necessarily limited thereto.

The panel member 108 has a glass fiber filler 108A disposed at the core of the inner frame 102 to shield the hollow areas of the inner frame 102 and the outer frame 104, and the outside of the glass fiber filler 108A. Plywood member 108B coupled to the inner frame 102 to be disposed in, Plywood board 108C coupled to the outer frame 104 to be disposed outside the plywood member 108B, and Gypsum board 108C ) Is composed of a drawing medium 108D which is drawn on the surface of

The glass fiber filler 108A, the plywood member 108B, the gypsum board 108C, and the sheet 108D of the panel member 108 are sequentially disposed in the hollow regions of the inner frame 102 and the outer frame 104. Are combined by a known coupling means.

In addition, the plywood member 108B may be formed of a medium density fiber board (MDF) or a particle board (PB), but is not limited thereto.

In addition, the components of the panel member 108 may be made of a light and rigid material to contribute to the weight reduction and durability of the panel member 108.

The ceiling member 200 serves to fix the upper part of the wall 100 to the ceiling 1, and has a predetermined length and is formed in a rectangular box shape in which the inside is hollow to be fixed to the ceiling 1 through fixing means. And the coupling groove 202 is formed at the bottom thereof.

In addition, the first reinforcing member 204A and the second reinforcing member 204B are provided in the ceiling member 200 to prevent deformation when connected to the wall 10.

That is, the first reinforcing member 204A is installed on both sidewalls of the ceiling member 200 in the longitudinal direction, respectively, and the second reinforcing member 204B is both ends of the ceiling member 200 so as to be orthogonal to the first reinforcing member 204A. At least one is fixed to both sidewalls of the c) to be connected to the first reinforcing member 204A.

Accordingly, the ceiling member 200 may be reinforced by the first reinforcing member 204A and the second reinforcing member 204B, thereby preventing deformation due to the connection of the wall 100.

In the ceiling member 200 as described above, the upper portion of the wall 100 is connected to the ceiling 1 by a coupling protrusion 106 coupled to the coupling groove 202 when the wall 100 is moved up and down by the height adjusting unit 300. Fixed to connect

In addition, the fixing means serves to fix the ceiling member 200 to the ceiling, the fixing means in this embodiment consists of an anchor bolt 206 coupled to the ceiling (1) through the ceiling member 200.

The anchor bolt 206 may firmly fix the ceiling member 200 to the ceiling 1 when the ceiling structure is not constructed on the ceiling 1.

In addition to the fixing means, any fixing means known in the art can be used as long as it can securely fix the ceiling member 200 to the ceiling 1.

In addition, after the ceiling member 200 is fixed to the ceiling 1 by the anchor bolt 206, the molding member 209 for finishing is provided on both sides in the longitudinal direction of the ceiling member 200.

The molding member 209 may be fixed by any one method selected from high frequency bonding, adhesives, screws, and the like, and may be fixed by high frequency bonding in consideration of solid fixing, damage, and aesthetics of the molding member 29. It is preferable to be fixed.

In addition, any known fixing method may be applied as long as the molding member 209 can be firmly fixed.

The height adjustment part 300 serves to adjust the height of the wall 100 so that the wall 100 is connected to the ceiling 1 and fixed through the ceiling member 200, and the bottom of the wall 100 is lowered. The support member 310 and the support member 310 provided to be in contact with, the lifting member 320 is installed in the upper and lower portions of the support member 310 to be coupled to the lower portion of the wall 100, and the support member 310 and elevating Is provided between the members 320 is composed of a height adjustment member 330 for elevating the elevating member 320 so that the height of the wall 100 is adjusted.

The supporting member 310 is formed of a flat plate having the same length and width as the wall 10, and a rectangular guide wall 312 protruding upward is formed at the top thereof.

The elevating member 320 is formed in a rectangular box shape in which the inside is hollow so that the lower part is opened so that the guide wall 312 of the support member 310 is accommodated therein. First and second housings 322 and 324 are provided at both sides in the longitudinal direction of the elevating member 320. The elevating member 320 is fixed to the lower portion of the wall 100 by known fixing means, for example bolts.

The elevating member 320 is guided by the guide wall 312 of the support member 310 during the elevating by the height adjusting member 330.

That is, the elevating member 320 is installed on the lower portion of the wall 100 so that the guide wall 312 of the support member 310 is accommodated therein, so that the elevating member 320 is elevated on the guide wall 312 by the height adjusting member 330. Guided by it will be moved up and down.

In addition, wheels 326 for carrying the wall 100 are provided at both sides in the longitudinal direction of the elevating member 320. In this case, the wheels 326 are disposed to be adjacent to the outer side of the first and second housings 322 and 324 and penetrate the support member 310 to be in contact with the floor.

That is, the wheel 326 is in contact with the floor through the support member 310 during transportation for the construction of the wall 100, the wall 100 and the ceiling member 200 by the operation of the height adjustment unit 300 and After being connected, the floor is separated from the floor according to the lifting of the lifting member 320.

On the other hand, upon dismantling of the wall 100, the lowering member 320 is contacted with the floor through the supporting member 310 as the lifting member 320 descends due to the operation of the height adjusting unit 300.

Such wheels 326 are preferably in contact with the floor during transport and construction of the wall 100 in contact with the bottom to adopt a caster that is free rotation and rolling rotation at the same time, but not necessarily limited thereto.

Therefore, the wall 100 may be easily carried by the wheel 326 which is freely rotated and rolling in contact with the floor even when the wall 100 has a predetermined volume and weight.

The height adjusting member 330 is the first and second spiral shafts vertically fixed to penetrate the first and second housings 322 and 324 provided inside the elevating member 320 on both sides of the upper longitudinal direction of the supporting member 310. 332A and 332B, and are accommodated in the first and second housings 322 and 324 and screwed into the first and second helix shafts 332A and 332B, respectively, and the length of the first and second helix shafts 332A and 332B by rotation. A handle coupling part installed at the first housing 322 to be engaged with the first and second driven gears 334A and 334B and the first driven gear 334A to be lifted in the direction, and for the handle 339 to be coupled to one side thereof ( The drive gear 336 in which 337 is formed, and the gears 338A and 338B disposed between the first and second housings 322 and 324 and formed at both ends thereof are installed to be engaged with the first and second driven gears 334A and 334B. And a power transmission shaft 338 for transmitting the rotational force of the first driven gear 334A rotated by the drive gear 336 to the second driven gear 334B.

In this case, the first and second driven gears 334A and 334B and the gears 338A and 338B formed at both ends of the power transmission shaft 338 are connected in a bevel gear manner.

In addition, the handle coupling portion 337 formed in the drive gear 336 is exposed to the handle coupling hole 328 formed on the front surface of the elevating member 320 is coupled to the handle 339.

In addition, the threaded portion of the first driven gear 334A is formed with a right screw, and the threaded portion of the second driven gear 334B is formed with a left screw.

That is, when the handle 339 is rotated clockwise to raise the elevating member 320, the drive gear 336 is rotated clockwise and the first driven gear 334A is rotated counterclockwise. As a result, the power transmission shaft 338 rotates clockwise, so that the second driven gear 334B rotates clockwise.

On the other hand, when the handle 339 is rotated counterclockwise to lower the elevating member 320, the drive gear 336 is rotated counterclockwise and the first driven gear 334A is rotated clockwise. Since the power transmission shaft 338 rotates counterclockwise, the second driven gear 334B rotates counterclockwise.

Accordingly, the first driven gear 334A is coupled to the first spiral shaft 332A by the right hand screw, and the second driven gear 334B is respectively screwed to the second spiral shaft 332B by the left hand screw, thereby elevating member. The same ascending and descending of the first and second driven gears 334A and 334B screwed to the first and the first and second spiral shafts 332A and 332B, respectively, is possible during the lifting and lowering of the 320.

In addition, the height adjusting member 330 is further provided with a stopper device 340 for controlling the height of the elevating member 320 when the elevating member 320, the stopper device 340 is the inner longitudinal direction of the elevating member 320 both sides A plurality of locking ends 342 and 344 disposed at intervals equal to the lifting lengths so as to penetrate the power transmission shaft 338, and the locking end 342 and the power transmission shaft 338 of any one of the locking ends 342 and 344. At the same time screwed to the one end is formed with a locking jaw 348 is located between the locking end (342,344) and the lifting jaw 348 while moving freely in the longitudinal direction of the power transmission shaft 338 during the lifting of the elevating member (320) ) Is composed of a locking knob 346 for locking and releasing the locking end (342,344).

At this time, the locking knob 346 is a power transmission by the screw portion 349 formed on the outer periphery in the state in which the screw portion 338C is screwed to the power transmission shaft 338 is formed in the longitudinal direction as shown in FIG. It is screwed to the locking end 342 disposed on the right side of the shaft 338.

The locking ends 342 and 344 are fixed by known fixing means, for example, bolts, welding, or the like, by maintaining a constant interval inside the elevating member 320 to have the same interval as the elevating length of the elevating member 320.

The locking knob 346 is formed in a hollow pipe shape having a predetermined length so that the inner and outer threads are simultaneously screwed to the power transmission shaft 338 and the locking end 342, and the locking end is screwed to the locking end 342. A locking jaw 348 is formed at one end of the knob 346. The locking jaw 348 is positioned between the locking ends 342 and 344 to be in contact with the locking end 344 disposed on the left side of the power transmission shaft 338 in the lowered state of the lifting member 320. In the raised state of 320, the contacting end of the power transmission shaft 338 is caught to be in contact with the locking end 342.

The locking knob 346 is freely moved in the longitudinal direction of the power transmission shaft 338 by the screw 338C when the power transmission shaft 338 rotates, and the locking jaw 348 is caught and released from the locking ends 342 and 344. As the movement thereof is controlled, the height of the elevating member 320 is raised and lowered.

Here, the locking knob 346 is the locking end 342,344 is fixed to the inside of the elevating member 320, the power transmission shaft 338 is in place between the first driven gear 334A and the second driven gear 334B. It can rotate and move freely along the threaded portion 338C of the power transmission shaft 338.

The height adjusting unit 300 configured as described above is elevated by the operation of the height adjusting member 330 provided between the supporting member 310 and the elevating member 320 to elevate the member 320 up and down the supporting member 310. The height of the elevating member 320 is raised and lowered by the stopper device 340.

Reference numeral “109” denotes a mop base installed at the lower end of the wall 100, and the mop base 109 is the ceiling member 200 by adjusting the height of the height adjusting part 300 of the wall 100. After being connected to and fixed to the ceiling (1), it is to be constructed as a finishing material to prevent the inflow of liquid generated when the contact with the mop, such as cleaning the floor and to enhance the beauty of the wall (10).

The operation of the present invention having such a configuration will now be described.

In the variable lightweight wall according to the first embodiment of the present invention, when the wall is to be installed in order to partition the interior space as described above, the wall 100 and the height adjusting part 300 are respectively installed in a factory or a site. By assembling to combine the height adjustment unit 300 in the lower portion of the wall 100 to be integrated, and fixed to the ceiling member 200 via the fixing means to the ceiling (1) where the wall 100 is installed.

At this time, by the wheel 326 provided on the elevating member 320 of the height adjustment unit 300 can easily and safely move the wall 100 having a weight of a predetermined volume, when dismantling the wall 100 Ease of carrying becomes possible.

In addition, the fixing means is used anchor bolt 206, the anchor bolt 206 can be fixed to the ceiling member 200 to the ceiling (1) when the ceiling (1) is made of concrete itself. .

After the ceiling member 200 is fixed to the ceiling 1, the molding member 209 for the finishing treatment is bonded to both sides of the ceiling member 200 in the longitudinal direction, the molding member 209 is a high frequency adhesive To be fixed.

As described above, when the ceiling member 200 is fixed to the ceiling (1) via the anchor bolt 206, the height adjustment unit 300 is standing upright to the wall (100) integrated with the ceiling member 200 directly below Located in the room, the height adjustment unit 300 is operated so that the upper portion of the wall 100 is connected to and fixed to the ceiling member 200 fixed to the ceiling (1).

That is, when the handle 339 is inserted into the handle engaging hole 328 of the elevating member 320 and coupled to the handle engaging portion 337 of the drive gear 336, the handle 339 rotates clockwise. The drive gear 336 rotates clockwise, and the first driven gear 334A connected to the drive gear 336 rotates counterclockwise. Then, the first driven gear 334A rises along the longitudinal direction of the first spiral shaft 332A, and the power transmission shaft 338 rotates clockwise, so that the second driven gear 334B rotates in the second spiral. Since the ascending member 320 is raised along the longitudinal direction of the shaft 332B, and the elevating member 320 is raised to the upper portion of the supporting member 310 by the first and second driven gears 334A and 334B, the wall 100 is ceilinged. It is raised to be connected with the member 200.

At this time, the elevating member 320 is installed in the lower portion of the wall 100 so that the guide wall 312 of the support member 310 therein, the guide wall 312 during the elevating by the height adjustment member 330 Guided by the elevating up and down, so a stable elevating can be made.

In addition, since the first driven gear 334A is screwed with the first screw shaft 332A by the right screw, and the second driven gear 334B is screwed with the second screw shaft 332B by the left screw, respectively. The first and second driven gears 334A and 334B may be raised and lowered in the same length direction along the first and second spiral shafts 332A and 332B.

In addition, when the wall 100 is connected to the ceiling member 200, a predetermined external force acts on the ceiling member 200 by the lifting force of the wall 100, which is the first reinforcing member of the ceiling member 200. By reinforcing by the 204A and the second reinforcing member 204B, deformation of the ceiling member 200 due to the connection of the wall 100 can be prevented.

In addition, the locking knob 346 constituting the stopper device 340 moves to one side in the longitudinal direction by the screw portion 338C of the power transmission shaft 338 as the lifting member 320 rises. Since the locking step 348 of the) is caught by the locking end 342, the height according to the rise of the elevating member 320 may be interrupted.

That is, in the state in which the locking step 348 is in contact with the locking end 344 disposed on the left side of the power transmission shaft 338, the locking knob 346 is rotated to one side in the longitudinal direction by the power transmission shaft 338. When freely moved and caught by the locking end 342 disposed on the right side of the power transmission shaft 338, the rotation of the power transmission shaft 338 is controlled and stopped, so that the lifting of the elevating member 320 is stopped and the wall 100 is stopped. Unnecessary rise of can be prevented.

Thus, when the wall 100 is raised by the operation of the height adjustment unit 300, the engaging projection 106 provided on the upper portion of the wall 100 is fitted into the coupling groove 202 of the ceiling member 200. As the ceiling member 200 is connected to the wall 100 to be fixed to the ceiling 1, the installation of the wall 100 is completed.

After the construction of the wall 100 is completed as described above, at the lower end of the wall 100 as a finishing material for preventing the inflow of liquid generated during contact with the mop according to the floor cleaning and to improve the beauty of the wall 100. 109 will be constructed.

On the other hand, when dismantling the wall, the height adjustment unit 300 is operated so that the upper part of the wall 100 is separated from the ceiling member 200 fixed to the ceiling (1). At this time, after dismantling the baseboard 109 constructed at the lower end of the wall 100, the height adjustment unit 300 is operated.

That is, the handle 339 is inserted into the handle engaging hole 328 of the elevating member 320 so as to rotate the handle 339 counterclockwise in a state in which the handle 339 is coupled to the handle engaging portion 337 of the drive gear 336. When the drive gear 336 is rotated in a counterclockwise direction, the first driven gear 334A connected to the drive gear 336 is rotated in a clockwise direction. Then, the first driven gear 334A is lowered along the longitudinal direction of the first spiral shaft 332A and the power transmission shaft 338 rotates counterclockwise so that the second driven gear 334B is rotated in the second direction. Since the spiral shaft 332B is lowered along the longitudinal direction, and the elevating member 320 is lowered in the reverse direction of the elevating by the first and second driven gears 334A and 334B, the wall 100 is the ceiling member 200. ) To separate it from

At this time, as the lowering of the elevating member 320, the locking jaw 348 of the locking knob 346 is in contact with the locking end 342 disposed on the right side of the power transmission shaft 338, the locking knob 346 ) Is moved to the other side in the longitudinal direction by the power transmission shaft 338 is rotated is caught by the locking end 344 disposed on the left side of the power transmission shaft 338, so that the lowering of the elevating member 320 is interrupted. do.

That is, the locking knob 346 is freely moved to the other side in the longitudinal direction by the power transmission shaft 338 is rotated so that the locking jaw 348 is caught on the locking end 344 disposed on the left side of the power transmission shaft 338. When the rotation of the power transmission shaft 338 is controlled and stopped, the lowering of the elevating member 320 may be stopped, and the excessive lowering of the wall 100 may be prevented.

Thus, when the wall 100 is lowered by the operation of the height adjustment unit 300, the coupling protrusion 106 provided on the upper portion of the wall 100 is separated from the coupling groove 202 of the ceiling member 200. The dismantling of the wall 100 may be completed by dismantling the ceiling member 200 from which the wall 100 is connected to the wall 100 from the ceiling 1.

Such a variable lightweight wall is connected to and separated by the lifting operation of the ceiling member 200 and the height adjustment unit 300 fixedly coupled to the ceiling (1), the wall for partitioning the interior space in various ways ( 100 can be easily installed and dismantled, the breakage is minimized through easy dismantling of the wall to enable recycling according to the remodeling, and the upper part of the wall 100 is connected to the ceiling member 200 to the ceiling ( By being fixed to 1), it is possible to maintain a stable fixed state according to the installation of the wall (100).

On the other hand, in the variable lightweight wall according to the second embodiment of the present invention, as shown in Figure 7 fixing means for fixing the ceiling member 200 to the ceiling (1) as a pair of Velcro tape 208 It is composed.

The fixing means in this embodiment is composed of a ceiling member 200 and a pair of velcro tapes 208, respectively, which are composed of male and female on the ceiling.

In this case, the Velcro tape 208 may be easily applied when a separate ceiling structure is constructed on the ceiling 1.

That is, when the ceiling 1 is not made of concrete itself, and the separate ceiling structure is constructed, the velcro tape 208 is installed to correspond to the ceiling member 200 and the ceiling 1, respectively, thereby providing the ceiling member 200. It can be easily fixed to the ceiling (1).

The variable lightweight wall according to the second embodiment of the present invention configured as described above adopts the Velcro tape 208 as a fixing means for fixing the ceiling member 200 to the ceiling 1, thereby providing the installation of the wall 100 and When dismantling, the ceiling member 200 can be easily fixed and dismantled to the ceiling.

In addition, although not shown in the drawing, the Velcro tape 208 is installed so as to correspond to the upper part and the ceiling of the wall 100 when a separate ceiling structure is not installed in the ceiling 1, and by the height adjusting part 300. It is also possible to fix the elevated wall 100 by connecting to the ceiling. Thus, the configuration of the ceiling member 200 is deleted, so that the installation and release work of the wall 100 may be quickly performed.

On the other hand, the variable lightweight wall according to the third embodiment of the present invention, as shown in Figure 8 and 9 has a structure that can be connected to the wall 100 in the lateral direction.

In this embodiment, a plurality of grooves 107A are formed on both sidewall surfaces of the wall 100 at regular intervals along the longitudinal direction. At this time, the groove 107A is formed in the outer frame 104.

The recess 107A is provided with a wall connector 400 having a plurality of locking protrusions 402 on one side thereof to correspond to each other when the lateral connection between the walls 100 is engaged.

Here, the wall connector 400 may be separately formed and coupled to the recess 107A, or integrally formed in the recess 107A. In this embodiment, the wall connector 400 is coupled to the recess 107A. Is shown.

In addition, in the outer frame 104 forming both sidewalls of the wall 100, a groove 107B is formed along the longitudinal direction to provide a locking space so that the locking projections 402 of the wall connecting member 400 are connected to each other. do.

Therefore, the wall 100 is able to be connected in the lateral direction by the locking structure between the wall connecting member 400 having the locking projection 402.

In the variable lightweight wall according to the third embodiment of the present invention configured as described above, the plurality of walls 100 are laterally connected by a locking structure between the wall connectors 400 provided on both sidewalls of the wall 100. It may be configured to.

Meanwhile, the variable lightweight wall according to the fourth exemplary embodiment of the present invention has a structure in which both sidewalls of the wall 100 are fixed to the wall 2 as shown in FIGS. 10 and 11.

In this embodiment, the wall 2 is provided with a wall member 410 fixed by a known fixing means so that both side walls of the wall 100 are fixed to the wall 2. A plurality of grooves 412 are formed on one side surface of the wall member 410 (the surface facing both side walls of the wall) at regular intervals along the longitudinal direction. The recess 412 is provided with a wall connector 400.

Here, the wall connector 400 may be separately formed and coupled to the recess 412, or may be integrally formed with the recess 412. In this embodiment, the wall connector 400 is coupled to the recess 412. Is shown.

In addition, a groove portion 414 is provided along one side of the wall member 410 to provide a locking space such that the locking protrusions 402 of the wall connector 400 are connected to each other.

Accordingly, both sidewalls of the wall 100 may be fixed to the wall 2 by a locking structure between the wall connectors 400.

The variable lightweight wall according to the fourth embodiment of the present invention configured as described above is firmly fixed by connecting both sidewalls of the wall 100 to the wall 2 by the wall member 410 and the wall connecting member 400. can do.

On the other hand, the variable lightweight wall according to the fifth embodiment of the present invention, as shown in Figure 12, the wall 100 is provided with an entrance 420.

In the present embodiment, the wall 100 is provided with a doorway 420 composed of a door frame 422 and a door 424. The doorway 420 may be provided at a predetermined position including a left side, a middle side, a right side, and the like of the wall 100. In this embodiment, the door 420 is illustrated on the left side of the wall 100.

The variable lightweight wall according to the fifth embodiment of the present invention configured as described above has an entrance 420 at a predetermined position of the wall 100 that partitions the interior space, thereby providing an interior space partitioned by the wall 100. I can pass smoothly.

On the other hand, the variable lightweight wall according to the sixth embodiment of the present invention, as shown in Figures 13 to 15, except that the wall 110 is formed of one or more blocks are connected to be stacked so that Same as the first to fifth embodiments of the invention.

That is, in the present exemplary embodiment, the variable lightweight wall includes a wall 110 formed of one or more blocks to variously partition an interior space of a building, a connection plate 120 for connecting one or more walls 110 to be stacked, and a wall. The ceiling member 210, which is fixedly coupled to the ceiling 1 via a fixing means so that the 110 and the ceiling 1 are connected, and the upper portion of the wall 110 is connected and fixed to the ceiling 110, and a lower portion of the wall 110. The wall 110 is provided with a height adjustment unit 300 for adjusting the height of the wall to be connected to the ceiling (1) via the ceiling member 210 is fixed.

The wall 110 has a frame member 112 formed in a rectangular frame for blocking, a reinforcing member 114 for reinforcing the inside of the frame member 112, and a fitting groove around the frame member 112. 118 is formed of a closing plate 116 coupled to the front and rear surfaces of the frame member 112 to be formed, respectively.

That is, the wall 110 is a frame member 112, the reinforcing member 114 and the closing plate 116 is formed as a single block, a plurality of walls 110 formed of blocks are stacked to be connected to the interior space Will partition

Therefore, assembly and disassembly may be easily performed when installing the wall 110 according to the change of the indoor space.

The reinforcing member 114 is formed by combining a plurality of diaphragms 115 to form a lattice structure so as to be light and excellent in rigidity.

Therefore, the reinforcing member 114 can improve the weight and durability of the wall 110 by the grid structure.

In addition, the reinforcing member 114 is not limited to the lattice structure, the plurality of partitions 115 may be combined with each other or formed of styrofoam to form a honeycomb structure having a polygon in order to reduce weight and improve durability.

The closing plate 116 is coupled to the reinforcement member 114 in the interior of the frame member 112, and then coupled to the open front and rear surfaces of the frame member 112, respectively.

At this time, the closing plate 116 is formed of a plate having a larger area than the front, rear surface area of the frame member 112, so that the circumference protrudes to the outside of the frame member 112 when coupled to the frame member 112 The fitting groove 118 is formed on the circumferential surface of the frame member 112 to which the closing plate 116 is coupled.

The connecting plate 120 serves to connect one or more walls 110 formed of blocks to be stacked on top of the height adjusting part 300, and for this purpose, the connecting plate 120 is formed of a plate having a predetermined length.

The connection plate 120 is provided at each connection portion of the upper portion and the wall 110 of the elevating member 320.

That is, after the connecting plate 120 is coupled to the upper portion of the elevating member 320, the wall 110 is connected to the connecting plate 120 through the fitting groove 118 to the upper portion of the elevating member 320. The plurality of walls 110 may be connected to each other by stacking the coupling plates 120 to the fitting grooves 118 between the walls 110.

On the other hand, when one or more of the wall 110 is laminated by the connecting plate 120, both side walls of the wall 110 is provided with side wall reinforcing members 130 for reinforcing their connection.

That is, the side wall reinforcement member 130 is formed of a plate having a predetermined length and is provided to be coupled to the fitting grooves 118 formed on both side walls of the wall 110.

Therefore, one or more walls 110 stacked on top of the height adjusting part 300 by the connecting plate 120 are integrated by the side wall reinforcement member 130 coupled to the fitting groove 118, thereby stacking the walls 110. ) Can be firmly reinforced.

In addition, a plurality of grooves 132 are formed on the surface (both sidewalls of the wall) of the sidewall reinforcing member 130 at regular intervals along the longitudinal direction.

The ceiling member 200 is formed of a plate having a predetermined length, and is fixed to the ceiling 1 through fixing means.

At this time, the fixing means is preferably made of an anchor bolt 206 or a pair of velcro tape 208, so that any fixing means known in the art can be used as long as it can firmly fix the ceiling member 200 to the ceiling. It is not limited.

The ceiling member 200 is connected to the fitting groove 118 of the wall 110 that is raised by the height adjustment unit 300 to fix the upper portion of the wall 110 to the ceiling (1).

On the other hand, the wall 110 has a structure that is laterally connected as shown in FIG.

That is, the wall connector 400 having the engaging protrusion 402 is provided on both sidewall surfaces of the wall 110, that is, the recess 132 of the side wall reinforcing member 130, and thus the lateral connection of the wall 110 is provided. A plurality of walls 110 may be laterally connected by a locking structure between the city wall connectors 400.

In this case, the wall connector 400 may be separately formed and coupled to the recess 132 of the sidewall reinforcing member 130 or may be integrally formed with the recess 132. In this embodiment, the wall connector 400 is provided. Is coupled to the groove 132 is shown.

Meanwhile, the wall 110 has a structure in which both sidewalls of the wall 110 connected laterally are fixed to the wall 2 as shown in FIG. 17.

That is, wall connectors 400 having locking projections 402 are formed on both sidewall surfaces of the wall 110, that is, the grooves 132 of the sidewall reinforcing members 130 and the grooves 412 of the wall members 410, respectively. When the two sidewalls of the wall 110 are fixed to the wall 2, the sidewalls of the wall 110 may be firmly fixed to the wall 1 by the locking structure between the wall connectors 400.

In addition, after both sidewalls of the wall 110 are fixed to the wall 1, the wall 110 has a structure in which an entrance 420 for a resident's passage is provided.

The doorway 420 may be provided at a predetermined position including a left side, a middle side, a right side, and the like of the wall 110. In this embodiment, the door 420 is illustrated on the left side of the wall 110.

Therefore, by providing the doorway 420 at a predetermined position of the wall 110 partitioning the indoor space, it is possible to smoothly pass the indoor space partitioned by the wall 110.

The present invention has been described in the above embodiments, but the present invention is not limited to the above-described embodiments, and those skilled in the art without departing from the gist of the present invention claimed in the claims. Anyone can make a variety of variations.

1 is a perspective view showing a variable lightweight wall according to a first embodiment of the present invention,

Figure 2 is a side cross-sectional view showing the interior of the variable lightweight wall according to the first embodiment of the present invention,

3 is an exploded perspective view showing a wall of the variable lightweight wall according to the first embodiment of the present invention;

Figure 4 is an exploded perspective view showing the height adjustment of the variable lightweight wall according to the first embodiment of the present invention,

5 is a cross-sectional view showing the inside of the height adjusting unit according to the first embodiment of the present invention;

6 is a cross-sectional view showing a state in which the variable lightweight wall is fixed to the ceiling according to the first embodiment of the present invention,

7 is a cross-sectional view showing a variable lightweight wall according to a second embodiment of the present invention;

8 is a cross-sectional view showing a variable lightweight wall according to a third embodiment of the present invention;

9 is a cross-sectional view taken along the line A-A of FIG.

10 is a cross-sectional view showing a variable lightweight wall according to a fourth embodiment of the present invention;

11 is a cross-sectional view taken along line B-B of FIG. 10;

12 is a front view showing a variable lightweight wall according to a fifth embodiment of the present invention;

13 is a perspective view showing a variable lightweight wall according to a sixth embodiment of the present invention;

14 is a cross-sectional view showing the interior of the variable lightweight wall according to the sixth embodiment of the present invention;

15 is an exploded perspective view showing a wall of the variable lightweight wall according to the sixth embodiment of the present invention;

16 is a cross-sectional view showing a state in which the variable lightweight wall according to the sixth embodiment of the present invention is connected laterally, and

17 is a front view showing a state in which the wall is connected to both side walls of the variable lightweight wall according to the sixth embodiment of the present invention and is fixed.

<Explanation of symbols for main parts of drawing>

100, 110: wall 120: connecting plate

130: side wall reinforcement member 200, 210: ceiling member

300: height adjustment unit 310: support member

320: lifting member 330: height adjustment member

340: stopper device 400: wall connection

410: wall member 420: entrance

Claims (22)

Wall 100 formed to partition the interior space of the building in various ways; A ceiling member (200) fixedly coupled to the ceiling (1) by means of fixing means such that the wall (100) and the ceiling (1) are connected, and the upper portion of the wall (100) is connected and fixed; And Support member 310 provided to contact the bottom in the lower portion of the wall 100 and the elevating member 320 is coupled to the lower portion of the wall 100 to be installed to be able to lift up and down on the upper portion of the support member (310) ), And a height adjusting member 330 provided between the supporting member 310 and the elevating member 320 to elevate the elevating member 320, and the wall 100 is connected to the ceiling member 200. Variable light weight wall, characterized in that consisting of; height adjustment unit 300 for adjusting the height of the wall to be connected and fixed. The method according to claim 1, The wall 100 has an inner frame 102 formed of a rectangular frame; An outer frame 104 coupled to form a frame around the inner frame 102; And Panel member (108) coupled to the hollow region of the inner frame (102) and outer frame (104); variable lightweight wall, characterized in that consisting of. The method according to claim 2, The panel member 108 is a glass fiber filler (108A) disposed in the core of the inner frame (102); A plywood member (108B) coupled to the inner frame (102) so as to be disposed outside the glass fiber filler (108A) and made of an MD board or a particle board; A gypsum board board 108C coupled to at least one outer frame 104 to be disposed outside the plywood member 108B; And A variable weight wall, characterized in that consisting of; a dopant paper (108D) is applied to the surface of the gypsum board (108C). The method according to claim 3, The ceiling member 200 is provided with a coupling groove 202 opening in the lower portion, the coupling protrusion 106 is provided on the upper portion of the wall 100, the coupling protrusion 106 is a height adjustment unit 300. Variable weight wall, characterized in that is fitted into the coupling groove 202 when the wall (100) by the rise. The method according to claim 4, Inside the ceiling member 200, a first reinforcing member 204A is provided correspondingly in the longitudinal direction of both sidewalls, and both ends of the ceiling member 200 are orthogonal to each other between the first reinforcing members 204A. The variable lightweight wall is characterized in that it is provided with at least one second reinforcing member (204B) fixed to both side walls and connected to the first reinforcing member (204A). The method according to claim 5, The variable lightweight wall, characterized in that the molding member 209 for finishing treatment is provided on both sides of the ceiling member 200 in the longitudinal direction. The method according to claim 6, The molding member 209 is a variable lightweight wall, characterized in that the fixing by any one of the adhesive means selected from high-frequency bonding, adhesives, screws and the like. Wall 110 formed of one or more blocks to partition the interior space of the building in various ways; A connection plate 120 for connecting one or more walls 110 to be stacked; A ceiling member 210 fixedly coupled to the ceiling 1 through a fixing means so that the wall 110 and the ceiling are connected to each other, and having an upper portion of the wall 100 connected to and fixed to the ceiling 110; And A support member 310 provided to contact the bottom of the wall 110 and the elevating member 320 is installed to be able to lift up and down on the support member 310 to be coupled to the lower portion of the wall 110. ), And a height adjusting member 330 provided between the supporting member 310 and the elevating member 320 to elevate the elevating member 320, and the wall 110 is connected to the ceiling member 210. Variable light weight wall, characterized in that consisting of; height adjustment unit 300 for adjusting the height of the wall 110 to be connected and fixed. The method according to claim 8, The wall 110 has a frame member 112 formed in a rectangular frame; Reinforcing members (114) for reinforcing the interior of the frame member (112); And The closing member 116 is coupled to the front and rear surfaces of the frame member 112 so that the fitting groove 118 is formed around the frame member 112; Variable lightweight wall, characterized in that consisting of. The method according to claim 9, The reinforcing member 114 is a variable lightweight wall, characterized in that the plurality of diaphragm 115 is coupled to each other to form a lattice structure. The method according to claim 9, The reinforcing member 114 is a variable lightweight wall, characterized in that formed of styrofoam. The method of claim 11, When the wall 110 is stacked by one or more by the connecting plate 120, both side walls of the wall 110, the side wall reinforcing member 130 for reinforcing their connection is characterized in that the variable lightweight wall . The method according to any one of claims 1 to 12, A guide wall 312 protruding upward is formed on an upper portion of the support member 310, and the lifting member 320 is formed such that a lower portion thereof is opened to accommodate the guide wall 312 therein. 320 is a variable lightweight wall, characterized in that guided by the guide wall 312 of the support member 310 when the elevating by the height adjustment member (300). 14. The method of claim 13, Variable weight wall, characterized in that the wheel 326 for the transport of the wall 110 is provided on both sides of the inner longitudinal direction of the elevating member (320). The method according to claim 14, The height adjusting member 330 is the first and second spirals which are vertically fixed to penetrate the first and second housings 322 and 324 provided inside the elevating member 320 on both sides of the upper longitudinal direction of the supporting member 310. Axes 332A and 332B; A first housing accommodated in the first and second housings 322 and 324 and screwed to the first and second spiral shafts 332A and 332B, respectively, and being elevated in the longitudinal direction of the first and second spiral shafts 332A and 332B by rotation. , 2 driven gears 334A, 334B; A drive gear 336 installed in the first housing 332 to be engaged with the first driven gear 334A and having a handle coupling part 337 formed at one side thereof to which the handle 339 is coupled; And Gears 338A and 338B disposed between the first and second housings 322 and 324 and formed at both ends thereof are installed to mesh with the first and second driven gears 334A and 334B and rotated by the driving of the driving gear 336. And a power transmission shaft (338) for transmitting the rotational force of the first driven gear (334A) to the second driven gear (334B). The method according to claim 15, The threaded portion of the first driven gear (334A) is formed with a right hand thread, and the threaded portion of the second driven gear (334B) is formed with a left hand thread. 18. The method of claim 16, The height adjusting member 330 is provided with a stopper device 340 to control the height according to the lifting of the elevating member 320, The stopper device 340 includes a plurality of engaging ends 342 and 344 disposed on both sides of the elevating member 320 at equal intervals as the elevating length and installed to penetrate the power transmission shaft 338; And The locking end 342, which is simultaneously screwed to one of the locking end 342 and the power transmission shaft 338 of the locking end (342,344) is formed between the locking end (342,344) and the lifting member 320 Variable locking light weight, characterized in that consisting of; locking jaw 348 for locking and releasing the locking step 348, the locking end (342, 344) while being freely moved in the longitudinal direction of the power transmission shaft (338) during lifting Wall. The method according to claim 17, A plurality of grooves 107A and 132 are formed on both sidewall surfaces of the walls 100 and 110 at regular intervals along the longitudinal direction, and the grooves 107A and 132 are connected to each other when the side walls are connected between the walls 100 and 110. Wall connectors 400 having a plurality of locking projections 402 are provided on one side corresponding to each other, so that the walls 100 and 110 are laterally connected by a locking structure between the wall connectors 400. Adjustable lightweight wall. 19. The method of claim 18, A wall member 410 is provided for connecting and fixing both sidewalls of the walls 100 and 110 to the wall 2, and a plurality of wall members 410 are spaced at regular intervals along a longitudinal direction on one side of the wall member 410. A groove 412 is formed, and the groove 412 is provided with a wall connector 400 so that the walls 100 and 110 are connected to and fixed to the wall member 410 by a locking structure between the wall connectors 400. Variable light weight wall, characterized in that. The method of claim 19, The wall (100, 110) is a variable lightweight wall, characterized in that the entrance 420 is further provided. The method of claim 20, The fixing means is a variable lightweight wall, characterized in that consisting of anchor bolts (206). The method of claim 20, The fixing means is a variable lightweight wall, characterized in that consisting of a pair of Velcro tape (208).

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