CN213063148U - Support array of overhaul room and overhaul room - Google Patents

Abstract

The utility model discloses a support array and maintenance room of maintenance room, including host system and three piece at least bracing pieces, all bracing pieces are cyclic annular and distribute, and the bracing piece is electric putter, and all bracing pieces are parallelly connected to host system, the lift of host system control bracing piece, and the lower extreme of bracing piece supports in subaerial, and the ceiling lid closes the upper end at all bracing pieces. The support of the ceiling is realized by means of a support array consisting of electric push rods. The main control module controls each supporting rod to independently lift, and the single supporting rod can realize the stepless regulation of the height under the control of the main control module, so that the assembly process of steel pipes is replaced, and the height regulation of the ceiling is more flexible and convenient. The altitude mixture control of each bracing piece is gone on alone, even the place position of overhauing the room is rugged and uneven, also can go up and down not co-altitude through controlling different bracing pieces to make the ceiling be in the horizontality as far as possible, thereby make the focus of whole maintenance room more stable, thereby increase the stability of overhauing the room.

Description

Support array of overhaul room and overhaul room

[ technical field ] A method for producing a semiconductor device

The utility model relates to a support array and maintenance room of maintenance room belongs to the electrical power rush-repair field.

[ background of the invention ]

The service room is constructed similar to a tent, with the main structure including a ceiling and an array of supports for supporting the ceiling. Usually, the support array is a non-adjustable steel pipe structure, the specification of the steel pipe is relatively single, and a large number of steel pipes are required to be installed on site in order to realize the adjustment of the height of the ceiling. Once the ground is uneven or the number and the specification of the steel pipes are insufficient, the installation failure of the overhaul room is easily caused, and the on-site rush repair cannot be timely carried out.

[ Utility model ] content

The utility model aims to solve the technical problem that overcome prior art not enough and provide a support array and maintenance room of adjusting more convenient maintenance room.

Solve the technical problem, the utility model discloses a following technical scheme:

the utility model provides a support array who overhauls room, includes host system and three piece at least bracing pieces, and all bracing pieces are cyclic annular distribution, and the bracing piece is electric putter, and all bracing pieces connect in parallel to host system, and host system controls the lift of bracing piece, and the lower extreme of bracing piece supports in subaerial, and the ceiling lid closes the upper end at all bracing pieces.

The utility model has the advantages that:

the support of the ceiling is realized by means of a support array consisting of electric push rods. The main control module controls each supporting rod to independently lift, and the single supporting rod can realize the stepless regulation of the height under the control of the main control module, so that the assembly process of steel pipes is replaced, and the height regulation of the ceiling is more flexible and convenient. The altitude mixture control of each bracing piece is gone on alone, even the place position of overhauing the room is rugged and uneven, also can go up and down not co-altitude through controlling different bracing pieces to make the ceiling be in the horizontality as far as possible, thereby make the focus of whole maintenance room more stable, thereby increase the stability of overhauing the room.

The upper ends of all the support rods of the utility model are fixed on the ceiling.

The utility model discloses be provided with first elasticity rope between the upper end of two adjacent spinal branch vaulting poles, the ceiling is located the top of first elasticity rope, supports the ceiling during the tensioning of first elasticity rope.

The utility model discloses interval adjustable setting between two adjacent spinal branch vaulting poles.

The lower extreme of bracing piece is provided with the gyro wheel.

The maintenance house comprises a support array and a guide rod arranged in the middle of the support array, wherein the guide rod is obliquely arranged relative to the ground, the guide rod moves in the vertical direction, and the middle part of a ceiling is supported at the upper end of the guide rod.

The upper end of the guide rod is fixed on the ceiling.

Be provided with the second elasticity rope between the upper end of guide arm and the upper end of bracing piece, the ceiling is located the top of second elasticity rope, and the second elasticity rope supports the ceiling when the upper end of guide arm is located the upper end top of bracing piece and second elasticity rope tensioning.

The upper end of guide arm is rotated and is provided with the frustum, thereby the ceiling lid closes and supports in the upper end of guide arm on the frustum.

The guide rod of the utility model is supported on the support rod.

Other features and advantages of the present invention will be disclosed in more detail in the following detailed description and the accompanying drawings.

[ description of the drawings ]

The invention will be further explained with reference to the drawings:

fig. 1 is a schematic perspective view of a maintenance room according to embodiment 1 of the present invention;

FIG. 2 is an enlarged schematic view of the structure at A in FIG. 1;

fig. 3 is an enlarged schematic view of B in fig. 1.

[ detailed description ] embodiments

The technical solutions of the embodiments of the present invention are explained and explained below with reference to the drawings of the embodiments of the present invention, but the embodiments described below are only preferred embodiments of the present invention, and not all embodiments. Based on the embodiments in the embodiment, other embodiments obtained by those skilled in the art without any creative work belong to the protection scope of the present invention.

In the following description, the appearances of the indicating orientation or positional relationship, such as the terms "inner", "outer", "upper", "lower", "left", "right", etc., are only for convenience in describing the embodiments and for simplicity of description, and do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and are not to be construed as limiting the invention.

Example 1:

referring to fig. 1-3, the present embodiment provides a service room including a ceiling (not shown), a guide bar d1, a guide block d2, and a support array.

The support array comprises a main control module and at least three support rods. The bracing piece is electric putter in this embodiment, and all bracing pieces are parallelly connected to main control module. For example, the number of the support rods is four in this embodiment.

The four support bars are named as a first support bar a1, a second support bar a2, a third support bar a3 and a fourth support bar a4 for the convenience of distinction. The first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 are sequentially distributed in a ring shape. The first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 are connected in parallel to the main control module, and the main control module controls the lifting processes of the first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 respectively, so that the lifting processes of the first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 do not interfere with each other.

The first support bar a1, the second support bar a2, the third support bar a3 and the fourth support bar a4 are all generally vertically disposed and parallel to each other such that the respective lower ends are supported on the ground. The guide bar d1 is located in the middle of the support array, the upper end of the guide bar d1 is provided with a frustum f, and the middle part of the ceiling covers the frustum f, so that the middle part of the ceiling is supported on the upper end of the guide bar d 1. The edge portion of the ceiling covers the upper end of the first support bar a1, the upper end of the second support bar a2, the upper end of the third support bar a3, and the upper end of the fourth support bar a4 at the same time. The guide rod d1 moves vertically, and the lifting process of the first support rod a1, the second support rod a2, the third support rod a3 and the fourth support rod a4 is matched, so that the whole or partial relaxation of the ceiling is controlled.

The whole ceiling is not easy to store rain and snow under the condition of tensioning, but the service life of the ceiling is reduced. The ceiling is not completely tensioned by adjusting the heights of the guide bar d1, the first support bar a1, the second support bar a2, the third support bar a3 and the fourth support bar a 4. At the moment, rain and snow are easy to accumulate on the ceiling, when the accumulation amount of the rain and snow reaches a certain degree, the height of one or more of the guide rod d1, the first support rod a1, the second support rod a2, the third support rod a3 and the fourth support rod a4 can be regulated and controlled, so that the local tension of the ceiling is increased, the rain and snow fall from the ceiling, the rain and snow can be removed without disassembling the ceiling, and the normal working time of the overhaul house can be increased. The service life of the ceiling is increased as the ceiling does not need to be kept in tension all the time. Meanwhile, the gravity center of the ceiling can be adjusted by adjusting the heights of the four supporting rods, so that the overhaul room is more stable.

In order to avoid the sliding of the ceiling in the lifting process of the first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4, the upper end of the first supporting rod a1, the upper end of the second supporting rod a2, the upper end of the third supporting rod a3 and the upper end of the fourth supporting rod a4 are all fixed with the edge of the ceiling, so that the ceiling is positioned, and meanwhile, the situation that the adjacent two supporting rods can generate pulling force on the ceiling is ensured.

In order to make the height change of the supporting rods more sensitive to the adjustment of the tension degree of the ceiling, a first elastic rope is arranged between the upper ends of two adjacent supporting rods. Taking the first support bar a1 and the second support bar a2 as an example, the heights of the first support bar a1 and the second support bar a2 are changed, and the distance between the upper end of the first support bar a1 and the upper end of the second support bar a2 is changed, so that the loosening or tensioning of the first elastic rope between the upper end of the first support bar a1 and the upper end of the second support bar a2 can be controlled. After the first elastic rope is tensioned, the ceiling can be supported by lines.

Under the normal use state of the maintenance room, the upper end of the first supporting rod a1, the upper end of the second supporting rod a2, the upper end of the third supporting rod a3 and the upper end of the fourth supporting rod a4 are in the same horizontal plane, so that the four first elastic ropes are located in the same horizontal plane.

In this embodiment, the distance between two adjacent support rods is adjustable. Also taking the first support bar a1 and the second support bar a2 as an example, it is also possible to adjust the slackness or tension of the first elastic cord by changing the horizontal relative position between the first support bar a1 and the second support bar a2 to change the distance between the upper end of the first support bar a1 and the upper end of the second support bar a 2.

Similarly, a second elastic rope is arranged between the upper end of the guide rod d1 and the upper end of any support rod, and the total number of the second elastic ropes is four in the embodiment. The ceiling is positioned above the second elastic rope, and the guide rod d1 moves up and down along the vertical direction to change the distance between the upper end of the guide rod d1 and the upper end of the support rod, so that the second elastic rope is controlled to be in a tensioned or relaxed state. When the upper end of the guide rod d1 is located above the upper end of the support rod and the second elastic rope is tensioned, the second elastic rope inclines relative to the horizontal plane and the second elastic rope carries out line supporting on the ceiling.

First elasticity rope and the cooperation of second elasticity rope, the local or whole of effective control ceiling struts. Under the condition that the height of the frustum f is not high, the four first elastic ropes can be tightened or loosened, the four second elastic ropes are loosened, rain and snow can press the ceiling, and the ceiling can store up rain and snow to a certain extent. When the rain and snow accumulation amount is large, the height of the frustum f is increased, the middle of the ceiling is jacked up, the four second elastic ropes are tightened, and the four support rods are adjusted simultaneously, so that the four first elastic ropes are controlled to be tightened, the whole ceiling is in a tightened state, and the rain and snow can fall off from the ceiling.

In addition, the distance between the first supporting rod a1 and the second supporting rod a2 is reduced, the distance between the second supporting rod a2 and the third supporting rod a3 is reduced, the distance between the third supporting rod a3 and the fourth supporting rod a4 is reduced, and the distance between the first supporting rod a1 and the fourth supporting rod a4 is reduced, so that the maintenance room is changed to a folded state. On the contrary, the distance between the first supporting rod a1 and the second supporting rod a2 is enlarged, the distance between the second supporting rod a2 and the third supporting rod a3 is enlarged, the distance between the third supporting rod a3 and the fourth supporting rod a4 is enlarged, and the distance between the first supporting rod a1 and the fourth supporting rod a4 is enlarged, so that the maintenance room is changed to the scattered state.

In order to synchronously move the first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 and synchronize the folding and unfolding actions of the overhaul room in the front, back, left and right directions, the distance between the first supporting rod a1 and the second supporting rod a2, the distance between the second supporting rod a2 and the third supporting rod a3, the distance between the third supporting rod a3 and the fourth supporting rod a4 and the distance between the first supporting rod a1 and the fourth supporting rod a4 are always kept equal, and the corresponding first supporting rod a1, the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 are distributed in a diamond array.

In consideration of the actual unfolded shape of the service room, the first support bar a1, the second support bar a2, the third support bar a3 and the fourth support bar a4 are generally arranged in a square array in this embodiment.

Guide block d2 is disposed on guide rod d1, guide block d2 is movable relative to guide rod d1 along the axial direction of guide rod d1, guide rod d1 limits the moving direction of guide block d2, and guide block d2 also limits guide rod d 1. In the embodiment, the guide rod d1 and the guide block d2 are used for controlling the maintenance room to be changed between the folded state and the unfolded state, so that the distances from the guide block d2 to the upper end of the first support rod a1, the upper end of the second support rod a2, the upper end of the third support rod a3 and the upper end of the fourth support rod a4 are required to be equal all the time in consideration of the synchronization and symmetry of the moving processes of the first support rod a1, the second support rod a2, the third support rod a3 and the fourth support rod a4, and for this reason, the guide rod d1 is required to be vertically arranged, so that the guide rod d1 is parallel to the first support rod a1, the second support rod a2, the third support rod a3 and the fourth support rod a4 at the same time, and the guide rod d1 is required to be located at the center (.

A foot opening and closing component and a ceiling opening and closing component are arranged between any two adjacent supporting rods. The corresponding foot opening and closing components and the ceiling opening and closing components are four in number respectively. The four foot opening and closing assemblies are respectively arranged between the first supporting rod a1 and the second supporting rod a2, between the second supporting rod a2 and the third supporting rod a3, between the third supporting rod a3 and the fourth supporting rod a4 and between the first supporting rod a1 and the fourth supporting rod a 4. The four ceiling opening and closing components are respectively arranged between the first supporting rod a1 and the second supporting rod a2, between the second supporting rod a2 and the third supporting rod a3, between the third supporting rod a3 and the fourth supporting rod a4 and between the first supporting rod a1 and the fourth supporting rod a4, and the structures between the two adjacent supporting rods have high symmetry.

The foot opening and closing assembly comprises a first foot link b1, a second foot link b2, a third foot link b3 and a foot link block b 4. The first foot link b1 and the second foot link b2 are equal in length, and the first foot link b1, the second foot link b2 and the third foot link b3 are all disposed at an angle to the ground. Taking the foot opening and closing assembly between the first support rod a1 and the second support rod a2 as an example, the upper end of the first foot link b1 is rotatably mounted on the upper end of the first support rod a1, the upper end of the second foot link b2 is rotatably mounted on the upper end of the second support rod a2, the upper end of the third foot link b3 is rotatably mounted on the guide block d2, and the lower end of the first foot link b1, the lower end of the second foot link b2 and the lower end of the third foot link b3 are rotatably mounted on the foot link block b 4.

Neglecting the function of the ceiling opening and closing assembly, if the guide block d2 moves upward on the guide rod d1 in the vertical direction, the upper end of the third foot link b3 is driven by the guide block d2 to move toward the upper end of the guide rod d1, the guide block d2 moves the third foot link b3 upward as a whole, the lower end of the third foot link b3 rotates downward under the action of gravity, the lower end of the third foot link b3 gradually moves toward the lower end of the guide rod d1, and the whole third foot link b3 gradually moves toward the guide rod d1 to be attached. In the process that the guide rod d1 is drawn together by the third foot link b3 between the first support rod a1 and the second support rod a2, the lower end of the third foot link b3 can pull the first support rod a1 and the second support rod a2 towards the guide rod d1 through the foot linkage block b 4. Similarly, the other three third foot links b3 can simultaneously pull the second support bar a2 and the third support bar a3, the third support bar a3 and the fourth support bar a4, and the first support bar a1 and the fourth support bar a4 to approach the guide bar d 1. The direction of the force in which the single third foot link b3 pulls the support bar closer towards the guide bar d1 is parallel to the projection of this third foot link b3 on the ground. Taking the first support rod a1 as an example, the moving direction of the first support rod a1 in the horizontal plane relative to the guide rod d1 is the direction of the common perpendicular line of the axis of the first support rod a1 and the axis of the guide rod d1, by combining the forces of the two third foot links b3 adjacent to the first support rod a1 on the first support rod a 1. Similarly, the moving directions of the second supporting rod a2, the third supporting rod a3 and the fourth supporting rod a4 in the horizontal plane are the common vertical directions of the respective axes and the axis of the guide rod d 1. All the foot linkage blocks b4 of the corresponding first support bar a1, second support bar a2, third support bar a3 and fourth support bar a4 move downward when approaching toward the guide bar d1, so that the first foot link b1 and the second foot link b2 rotate correspondingly to reduce the distance between two adjacent support bars.

Under the condition that the distance between two adjacent supporting rods is fixed, the upper ends of four third foot connecting rods b3 are matched to prop against the guide block d2 so as to position the vertical height of the guide block d2 relative to the supporting rods, and the supporting rods support the guide block d2 through the foot opening and closing assembly.

Each support rod is provided with a sliding sleeve, a first sliding sleeve c1 is arranged on the corresponding first support rod a1, a second sliding sleeve c2 is arranged on the corresponding second support rod a2, a third sliding sleeve c3 is arranged on the corresponding third support rod a3, a fourth sliding sleeve c4 is arranged on the corresponding fourth support rod a4, the first sliding sleeve c1 is axially slidably arranged on the corresponding first support rod a1 along the corresponding first support rod a1, the second sliding sleeve c2 is axially slidably arranged on the corresponding second support rod a2 along the corresponding second support rod a2, the third sliding sleeve c3 is axially slidably arranged on the corresponding third support rod a3 along the corresponding third support rod a3, and the fourth sliding sleeve c4 is axially slidably arranged on the corresponding fourth support rod a4 along the corresponding fourth support rod a 4.

The canopy opening and closing assembly includes a first canopy link e1, a second canopy link e2, a third canopy link e3, and a canopy link block e 4.

Similarly, taking a ceiling opening and closing assembly between the first supporting rod a1 and the second supporting rod a2 as an example, the first ceiling connecting rod e1, the second ceiling connecting rod e2 and the third ceiling connecting rod e3 are also arranged obliquely relative to the horizontal plane, the lower end of the first ceiling connecting rod e1 is rotatably connected to the first sliding sleeve c1, the lower end of the second ceiling connecting rod e2 is rotatably connected to the second sliding sleeve c2, the lower end of the third ceiling connecting rod e3 is rotatably connected to the lower end of the guide rod d1, and the upper end of the first ceiling connecting rod e1, the upper end of the second ceiling connecting rod e2 and the upper end of the third ceiling connecting rod e3 are rotatably mounted on the ceiling linkage block e 4. The distance between the first supporting rod a1 and the second supporting rod a2 is changed, the first sliding sleeve c1 slides on the first supporting rod a1, and the second sliding sleeve c2 slides on the second supporting rod a2, so that the height of the ceiling linkage block e4 is changed, the ceiling linkage block e4 can pull the third ceiling connecting rod e3 to move up and down, and the lower end of the third ceiling connecting rod e3 can drive the guide rod d1 to move up under the condition that the third ceiling connecting rod e3 does not rotate on the ceiling linkage block e 4.

The guide bar d1 moves in the vertical direction while cooperating with the approaching or departing of the first support bar a1, the second support bar a2, the third support bar a3 and the fourth support bar a4 with respect to the guide bar d1, thereby controlling the closing or opening of the ceiling.

In this embodiment, the foot opens and shuts the subassembly and the ceiling opens and shuts and link between the subassembly to guide arm d1 descends when making the bracing piece be close to guide arm d1, thereby makes guide arm d1 and bracing piece laminate each other, thereby reduces the length of accomodating of overhauing the room under the state of drawing in. As the support bar is moved progressively away from guide bar d1, the entire array of supports is spread out. The guide d1 moves up relative to the support rods to support the ceiling in the middle and the edges of the ceiling are supported by the upper ends of the support rods.

The foot between two adjacent bracing pieces opens and shuts the subassembly and the ceiling opens and shuts the concrete linkage mode of subassembly and does: the middle of the first foot link b1 is pivotally connected to the middle of the first roof link e1, the middle of the second foot link b2 is pivotally connected to the middle of the second roof link e2, and the middle of the third foot link b3 is pivotally connected to the middle of the third roof link e 3.

The specific working principle is as follows: taking the foot opening and closing module and the ceiling opening and closing module between the first support rod a1 and the second support rod a2 as an example, since the lower end of the first ceiling link e1 is below the upper end of the first foot link b1 and the lower end of the second ceiling link e2 is below the upper end of the second foot link b2, the position of the first sliding sleeve c1 on the first support rod a1 is fixed and the position of the second sliding sleeve c2 on the second support rod a2 is also fixed in the case where the relative positions of the ceiling link e4 and the foot link b4 are fixed above the foot link b4, and since the lengths of the first ceiling link e1, the second ceiling link e2, the first foot link b1 and the second foot link b2 are fixed, the distance between the first support rod a1 and the second support rod a2 is also fixed. Similarly, the length of the third ceiling link e3 and the third foot link b3 is also constant, so that the distance between the ceiling linkage block e4 and the foot linkage block b4 can be constant even when the distance between the lower ends of the guide block d2 and the guide rod d1 is constant. The larger the distance between the guide block d2 and the lower end of the guide rod d1 is, the larger the included angle between the third ceiling link e3 and the third foot link b3 is, the closer the ceiling linkage block e4 and the foot linkage block b4 are to the guide rod d1, the first supporting rod a1 and the second supporting rod a2 are synchronously pulled to be close to the guide rod d1, the distance between the ceiling linkage block e4 and the foot linkage block b4 is increased, the first sliding sleeve c1 moves up and down on the first supporting rod a1, the second sliding sleeve c2 moves up and down on the second supporting rod a2, and the first supporting rod a1 and the second supporting rod a2 are close to each other.

The distance between the ceiling linkage block e4 and the foot linkage block b4 is increased, and the included angle between the first ceiling link e1 and the first foot link b1 is increased. Taking this embodiment as an example, the first ceiling link e1, the first leg link b1, the second leg link b2 and the second ceiling link e2 are equal in length, the midpoint of the first ceiling link e1 is pivotally connected to the midpoint of the first leg link b1, and the midpoint of the second leg link b2 is pivotally connected to the midpoint of the second ceiling link e2, so that the heights of the ceiling link block e4, the upper end of the second support bar a2 and the upper end of the first support bar a1 in the vertical direction are always the same. Similarly, the third ceiling link e3 and the third foot link b3 have the same length, and the midpoint of the third ceiling link e3 and the midpoint of the third foot link b3 are pivotally connected, so the ceiling link block e4 and the guide block d2 are always at the same height in the vertical direction, but since the guide block d2 moves upward relative to the guide bar d1, the guide bar d1 moves downward as a whole, and the guide bar d1 and the first support bar a1 approach each other in the vertical height. The interaction between the guide bar d1 and the third support bar a3 and the fourth support bar a4 is similar, and therefore, the description thereof is omitted.

Therefore, the guide block d2 moves upward relative to the guide rod d1, the guide rod d1 moves vertically downward, the support rod gradually draws close to the guide rod d1, and the service room gradually draws close. On the contrary, the guide block d2 moves downwards relative to the guide rod d1, the guide rod d1 rises vertically, the support rod gradually gets away from the guide rod d1, and the maintenance room gradually spreads.

The special feature of this embodiment is that the guide block d2 does not move vertically in practice, which is different from the case where there is no linkage relationship between the foot opening and closing assembly and the ceiling opening and closing assembly.

In this embodiment, the guide block d2 is a nut, the guide rod d1 is a screw rod, the lower end of the screw rod is connected with a motor, and the motor drives the screw rod to rotate. The guide block d2 is screwed on the guide rod d1, the four third foot links b3 position the guide block d2 in the radial direction and the circumferential direction from the front direction, the rear direction, the left direction and the right direction, and the guide rod d1 can only move relative to the guide block d2 along the axial direction. The lower ends of the four third ceiling links e3 are rotatably mounted on the housing of the motor, so that the end of the third ceiling link e3 is rotatably mounted on the lower end of the guide rod d1, and the rotation process of the guide rod d1 and the third ceiling link e3 are prevented from interfering with each other. The four third ceiling connecting rods e3 position the motor radially and circumferentially from the front, back, left and right directions, so as to stabilize the axis position of the guide rod d1, and the guide rod d1 can move up and down relative to the guide block d2 in the axial direction by rotating.

Preferably, the bottom of each of the four support bars is provided with a roller, so that the resistance of the support bars to the ground when the support bars move horizontally relative to the guide bar d1 is reduced.

The guide rod d1 needs to rotate, so the frustum f is rotatably arranged at the upper end of the guide rod d1, and the frustum f is prevented from rotating relative to the ceiling when the guide rod d1 rotates, so that the ceiling is prevented from being damaged.

Example 2:

the difference between this embodiment and embodiment 1 is that a foot opening and closing assembly and a ceiling opening and closing assembly are not arranged between two adjacent support rods, the upper end of a guide rod is fixed on the ceiling, the guide rod can be lifted under the control of an air cylinder, and the lifting process of the guide rod is relatively independent of the support rods. The distance between two adjacent supporting rods is adjusted by manual carrying.

The above description is only for the specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto, and those skilled in the art should understand that the present invention includes but is not limited to the contents described in the drawings and the above specific embodiments. Any modification which does not depart from the functional and structural principles of the present invention is intended to be included within the scope of the claims.

Claims (10)

1. The utility model provides a support array who overhauls room, its characterized in that includes host system and three piece at least bracing pieces, and all bracing pieces are cyclic annular distribution, and the bracing piece is electric putter, and all bracing pieces are parallelly connected to host system, and the lift of host system control bracing piece, the lower extreme of bracing piece support subaerial, and the ceiling lid closes the upper end at all bracing pieces.

2. The support array for the service room of claim 1, wherein the upper ends of all the support poles are fixed to a ceiling.

3. The support array for the service room of claim 1, wherein a first elastic cord is disposed between upper ends of two adjacent support bars, the ceiling is disposed above the first elastic cord, and the first elastic cord supports the ceiling when tensioned.

4. The support array for the service room of claim 3, wherein the distance between two adjacent support bars is adjustable.

5. The support array for the service room of claim 4, wherein the lower ends of the support bars are provided with rollers.

6. A service building comprising a support array as claimed in any one of claims 1 to 5 and a guide bar disposed intermediate the support array, the guide bar being inclined relative to the ground, the guide bar being movable in a vertical direction, the intermediate portion of the ceiling being supported at the upper end of the guide bar.

7. The service house of claim 6, wherein the upper end of the guide bar is secured to a ceiling.

8. The service room of claim 6, wherein a second elastic cord is disposed between the upper end of the guide bar and the upper end of the support bar, the ceiling is positioned above the second elastic cord, the upper end of the guide bar is positioned above the upper end of the support bar, and the second elastic cord supports the ceiling when the second elastic cord is tensioned.

9. The service room as claimed in claim 6, wherein the upper end of the guide bar is rotatably provided with a frustum, and a ceiling is covered on the frustum to be supported on the upper end of the guide bar.

10. The service house of claim 6, wherein the guide bar is supported on support bars.

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