CN111864546A

CN111864546A - Power transformation framework

Info

Publication number: CN111864546A
Application number: CN202010763332.0A
Authority: CN
Inventors: 庄奥运; 何振; 曹明阳; 黄从鹏; 王鑫龙
Original assignee: Jiangsu Shenma Electric Power Co Ltd
Current assignee: Jiangsu Shenma Electric Power Co Ltd
Priority date: 2020-07-31
Filing date: 2020-07-31
Publication date: 2020-10-30

Abstract

The application specifically discloses a transformer framework includes: the support assemblies are arranged at intervals along a first direction, and at least one support assembly comprises a first support part and a second support part which are connected with each other; the beam assembly is erected between two adjacent supporting assemblies; the first supporting part is located between the beam assembly and the second supporting part, the first supporting part is made of composite insulating materials, and the second supporting part is made of metal materials. Because the first supporting part connected with the beam assembly is made of the composite insulating material and has excellent electric insulating performance, the electric safety distance between the lead and the supporting assembly can be reduced, the width of the power transformation framework and the land acquisition cost are effectively reduced, and meanwhile, the second supporting part is made of the metal material, and the effect of reducing the cost can be achieved. In addition, the support assembly of the composite structure is light in weight and not easy to rust and crack, accordingly, the problem of difficulty in transportation, installation and maintenance is solved, and transportation and installation cost is reduced.

Description

Power transformation framework

Technical Field

The application relates to the technical field of power transformation equipment, in particular to a power transformation framework.

Background

The power transformation framework is one of the main devices in a substation, and is used for suspending and supporting conductors to connect a switchgear or other electrical equipment and the like.

Most of the current power transformation frameworks are the combination of traditional iron frameworks and strain insulator strings, suspension insulator strings and jumper wires, have the defects of heavy weight, easiness in corrosion or cracking and the like, and have the problems of large occupied area of the frameworks, difficulty in transportation and installation and the like for a transformer substation or a converter station. Therefore, a sophisticated power transformation architecture design is desired to solve the above problems.

Disclosure of Invention

The application provides a power transformation framework, can solve the problem that current power transformation framework area is big, transportation installation maintenance difficulty.

In order to solve the above technical problem, a technical solution adopted by the present application is to provide a power transformation framework, including: the support assemblies are arranged at intervals along a first direction, and at least one support assembly comprises a first support part and a second support part which are connected with each other; the beam assembly is erected between two adjacent supporting assemblies; the first supporting part is located between the beam assembly and the second supporting part, the first supporting part is made of composite insulating materials, and the second supporting part is made of metal materials.

According to an embodiment of the present application, all the support assemblies include a first support portion and a second support portion.

According to one embodiment of the present application, the beam assembly is a composite insulating material.

According to an embodiment of the application, be equipped with the flange subassembly between supporting component and the crossbeam subassembly, the tip of supporting component and crossbeam subassembly's tip are connected with the flange subassembly respectively, and the power transformation framework includes: the first wiring board is arranged at the joint of the beam assembly and the flange assembly, and is provided with a wiring hole for hanging a wire.

According to an embodiment of the present application, the method includes: and the shielding shell is covered outside the flange assembly.

According to an embodiment of the application, the beam assembly includes two at least crossbeam sections, and two adjacent crossbeam sections pass through flange joint, and the power transformation framework includes: the second suspension plate is arranged at a flange between two adjacent cross beam sections, and the second suspension plate is provided with a suspension hole for suspending a lead.

According to an embodiment of the present application, the method includes: the hoop is sleeved on the beam assembly at intervals; the third hanging wire plate is arranged on the outer wall of the hoop and provided with a hanging wire hole for hanging a wire.

According to an embodiment of the application, the hoop inner wall is provided with a plurality of first slots arranged at intervals and a plurality of second slots arranged at intervals, the first slots are arranged around the outer wall of the beam assembly, and the second slots and the first slots are arranged in a staggered mode.

According to an embodiment of the application, the hanging wire hole is used for being connected with the hanging wire fitting, and at least one hanging wire hole is a waist-shaped hole or an arc-shaped hole and is used for enabling the hanging wire fitting to rotate, and the direction of the acting force of the hanging wire fitting on the cross beam assembly is kept to be intersected with the central line of the cross beam assembly.

According to an embodiment of the present application, the method includes: the method comprises the following steps: the wiring post corresponds the setting with supporting component, and the wiring post is composite insulating material, and the wiring post is including setting up in supporting component's first end and the second end relative with first end, and the height that highly is higher than beam assembly of second end is connected between the second end of all wiring posts, and the second end is used for articulating the ground wire, and ground connection downlead is along at least one wiring post connection ground wire and ground point.

According to one embodiment of the present application, the beam assembly is gradually raised upward in a direction away from the two side support assemblies to form an arched beam assembly.

The beneficial effect of this application is: be different from prior art, set up the first supporting part of being connected with the crossbeam subassembly in the supporting component into composite insulation material, because the first supporting part of being connected with the crossbeam subassembly is composite insulation material, it has excellent electric insulating property to can reduce the electric safety distance between wire and the supporting component, and then effectively reduce transformer framework width and investigation ground expense, the second supporting part adopts metal material simultaneously, can reach reduce cost's effect. In addition, the support assembly of the composite structure is light in weight and not easy to rust and crack, accordingly, the problem of difficulty in transportation, installation and maintenance is solved, and transportation and installation cost is reduced.

Drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings needed to be used in the description of the embodiments are briefly introduced below, it is obvious that the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without inventive efforts, wherein:

FIG. 1 is a schematic block diagram of an embodiment of a power transformation architecture of the present application;

FIG. 2 is a schematic top view of an embodiment of the power transformation architecture of the present application;

fig. 3 is a schematic partial structure diagram of an embodiment of the power transformation framework of the present application, mainly illustrating a first suspension plate;

FIG. 4 is a schematic partial structural view of an embodiment of the power transformation architecture of the present application, shown primarily for the purpose of illustrating a second ceiling tile;

fig. 5 is a schematic structural view of a hoop and a third suspension plate in a further embodiment of the power transformation framework of the present application;

FIG. 6 is a schematic partial structural view of an embodiment of a power transformation architecture of the present application, primarily illustrating grading rings;

fig. 7 is a schematic diagram of the overall structure of a gang substation architecture in a further embodiment of the substation architecture of the present application.

Detailed Description

The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application, and it is obvious that the described embodiments are only a part of the embodiments of the present application, and not all the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present application.

An embodiment of the present application provides a power transformation framework 100, as shown in fig. 1 and 2, including at least two support assemblies 110 and at least two beam assemblies 120, where the support assemblies 110 are arranged at intervals along a first direction, the beam assemblies 120 are erected between two adjacent support assemblies 110, and the support assemblies 110 support the beam assemblies 120. The beam assembly 120 is used to hitch wires. The at least one support assembly 110 includes a first support portion 111 and a second support portion 112 connected to each other, the first support portion 111 is located between the beam assembly 120 and the second support portion 112, the first support portion 111 is made of a composite insulating material, and the second support portion 112 is made of a metal material. Because the first supporting portion 111 connected to the beam assembly 120 is made of composite insulating material, it has excellent electrical insulating performance, so that the electrical safety distance between the conductive wire and the supporting assembly 110 can be reduced, and further the width and the land acquisition cost of the power transformation frame 100 can be effectively reduced, and meanwhile, the second supporting portion 112 is made of metal material, so that the effect of reducing the cost can be achieved. In addition, the support assembly 110 with the composite structure has light weight and is not easy to rust and crack, so that the problem of difficulty in transportation, installation and maintenance is solved, and the transportation, installation and maintenance cost is reduced.

In order to further reduce the width of the power transformation framework 100, as shown in fig. 1, all the support assemblies 110 include a first support 111 and a second support 112, the first support 111 is made of a composite insulating material, so as to fully exert the electrical insulation performance thereof, and reduce the electrical safety distance between the wires and the support assemblies 110 to the maximum extent, thereby reducing the width and the ground charge of the power transformation framework.

In the conventional power transformation framework 100, the beam assembly 120 is made of a metal material, and a combination of a strain insulator string, a suspension insulator string or a jumper wire is required to be used for hanging and connecting a lead, so that the overall height of the power transformation framework 100 is high. In one embodiment, as shown in fig. 1, the beam assembly 120 is made of a composite insulating material, has excellent electrical insulating properties, can be directly connected with a wire without using a structure such as a suspension insulator, and can integrally reduce the height of the power transformation frame 100 and the material consumption of the structure such as the suspension insulator and the material consumption of the support assembly 110 after the wire is not connected with the suspension insulator due to the fixed ground height of the wire; moreover, strain insulator strings, suspension insulator strings and jumper wires are saved, and the problem of windage yaw discharge possibly existing in the power transformation framework 100 can be solved; the power transformation framework 100 made of the composite insulating material is light in weight, not prone to rusting and cracking, high in transportation and installation efficiency, capable of achieving a full life cycle and free of maintenance, and capable of reducing operation and maintenance costs of an original porcelain insulator chain.

In one embodiment, as shown in fig. 1, two support assemblies 110 are spaced apart along the first direction, and in this case, the power transformation frame 100 is a single-span power transformation frame 100.

In yet another embodiment, as shown in fig. 7, the support assemblies 110 are spaced apart along the first direction by at least three, such as three, four or more, and the power transformation framework 100 is a row power transformation framework 100.

It should be noted that the beam assembly 120 and the first supporting portion 111 may be in the structure of a post insulator, and the post insulator includes an insulator inside and a rubber shed covering the insulator. In particular, the insulator may be an insulating tube or an insulating mandrel. The insulating tube can be a glass fiber reinforced plastic tube formed by winding and curing epoxy resin impregnated by glass fiber or aramid fiber or a hollow pultrusion tube formed by pultrusion; the insulating core rod can be a solid core rod formed by winding and curing glass fiber or aramid fiber impregnated epoxy resin or a pultrusion core rod formed by pultrusion, and the rubber shed can be made of high-temperature vulcanized silicone rubber or other rubber materials. In other embodiments, the beam assembly 120 and the first support 111 may be made of other composite insulating materials, and are not limited herein.

In one embodiment, as shown in fig. 1, the beam assembly 120 is gradually lifted upwards in a direction away from the two side support assemblies 110 to form an arched beam assembly 120, so that the power transformation frame 100 can counteract the vertical sag by using its own arched structure, thereby reducing the potential safety hazard. As shown in fig. 1 and 3, a flange assembly 130 is disposed between the support assembly 110 and the beam assembly 120, and an end of the support assembly 110 and an end of the beam assembly 120 are respectively connected to the flange assembly 130. The flange assembly 130 includes a barrel 133, and an axis of the barrel 133 is inclined upward and forms an acute angle with a horizontal plane, so that the barrel 133 can have a tendency of pre-arching upward after being installed, and when the flange assembly 130 is connected with the beam assembly 120, a linked pre-arching angle can be generated, so that the beam assembly 120 can be gradually lifted upward in a direction away from the two side support assemblies 110 to form the arched beam assembly 120.

As shown in fig. 1 and 3, the power transformation framework 100 further includes a first wire hanging plate 141, the first wire hanging plate 141 is disposed at a connection position of the beam assembly 120 and the flange assembly 130, the first wire hanging plate 141 is provided with a plurality of wire hanging holes 144, and the wire hanging holes 144 are used for hanging wires.

Specifically, as shown in fig. 1 and 3, a first flange 132 is disposed at an end of the flange assembly 130, a second flange 123 is disposed at an end of the beam assembly 120, the first flange 132 and the second flange 123 are connected by a first fastener (not shown), and the first suspension plate 141 is interposed between the first flange 132 and the second flange 123. The first wire hanging plate 141 is provided with two wire hanging holes 144 and a reserved hole (not shown in the figure), wherein the reserved hole is located right below the beam assembly 120, and the two wire hanging holes 144 are symmetrically arranged on two sides of the reserved hole.

In an embodiment, as shown in fig. 1 and 4, the beam assembly 120 includes at least two, for example, two, three or more beam sections 121, two adjacent beam sections 121 are connected by a flange, the power transformation frame 100 includes a second suspension plate 142, the second suspension plate 142 is disposed at the flange between two adjacent beam sections 121, the second suspension plate 142 is provided with a plurality of suspension holes 144, and the suspension holes 144 are used for suspending the wires 200.

Specifically, as shown in fig. 1 and 4, the beam assembly 120 includes two beam sections 121, the adjacent ends of the two beam sections 121 are respectively connected to a third flange 124, and the second suspension plate 142 is sandwiched between the two third flanges 124. Two string-hanging holes 144 and a prepared hole are formed in the second string-hanging plate 142, wherein the prepared hole is located right below the beam assembly 120, and the two string-hanging holes 144 are symmetrically arranged on two sides of the prepared hole.

In yet another embodiment, the beam assembly 120 may be provided without being divided, i.e., the entire beam assembly 120 is a strip-type composite post insulator. As shown in fig. 5, the power transformation framework 100 includes an anchor ear 122 and a third wiring board 143, the anchor ear 122 is disposed on the beam assembly 120 in a spaced manner, the third wiring board 143 is disposed on an outer wall of the anchor ear 122, the third wiring board 143 is provided with a plurality of wiring holes 144, and the wiring holes 144 are used for hanging wires. The anchor ear 122 can be fixed on the beam assembly 120 by gluing, the inner wall of the anchor ear 122 is provided with a plurality of first slots 1221 arranged at intervals and a plurality of second slots 1222 arranged at intervals, the first slots 1221 are arranged around the outer wall of the beam assembly 120, and the second slots 1222 and the first slots 1221 are arranged in a staggered manner, so that the first slots 1221 and the second slots 1222 can limit the axial sliding and radial rotation of the anchor ear 122 on the beam assembly 120 under the combined action of the first slots 1221 and the second slots 1222, and the stable connection between the anchor ear 122 and the beam assembly 120 is maintained; meanwhile, the first slots 1221 and the second slots 1222 are staggered, so that when the adhesive material is filled, the adhesive material can sufficiently and uniformly flow in the first slots 1221 and the second slots 1222, and the adhesive bonding between the anchor ear 122 and the beam assembly 120 is facilitated.

Specifically, as shown in fig. 5, the third wire hanging plate 143 is integrally formed with the hoop 122, the first slot 1221 and the second slot 1222 on the inner wall of the hoop 122 are vertically disposed, the third wire hanging plate 143 is provided with two wire hanging holes 144 and a reserved hole, wherein the reserved hole is located right below the beam assembly 120, and the two wire hanging holes 144 are symmetrically disposed on two sides of the reserved hole.

Of course, in other embodiments, a manner of splicing a plurality of beam sections 121 and combining the hoop 122 may also be adopted, for example, the beam assembly 120 includes a long beam section 121 and a short beam section 121, the long beam section 121 and the short beam section 121 are spliced by a flange, the flange is provided with a second suspension plate 142, and the hoop 122 is sleeved on the long beam section 121.

As shown in fig. 4, the wire hanging hole 144 of each wire hanging plate is used for being connected with the wire hanging fitting 210, and the wire hanging hole 144 of the ordinary wire hanging plate for hanging the wire hanging fitting 210 is circular, but considering that the wire hanging fitting 210 may rotate at a certain angle under the action of external force, after the wire hanging fitting 210 rotates, the direction of the force between the wire hanging fitting 210 and each wire hanging plate cannot intersect with the central line of each wire hanging plate, that is, a torsion force is generated on each wire hanging plate, and the force can lead to loose connection and even reduce the support life. In order to make after hanging wire gold utensil 210 is rotatory, the direction of force between hanging wire gold utensil 210 and each hanging wire board still intersects with the central line of each hanging wire board, set up at least one hanging wire hole 144 on each hanging wire board into waist shape hole or arc hole in this application, hang wire gold utensil 210 takes place to rotate after automatic removal in hanging wire hole 144 for the direction of the effect of hanging wire gold utensil 210 to each hanging wire board keeps crossing with the central line of each hanging wire board, thereby keep the connection stability of each hanging wire board, strengthen the stability of transformer framework 100, prolong its life. In order to ensure the mechanical stability of the power transformation framework 100, the central line of each wire hanging plate coincides with the central line of the beam assembly 120, so that the wire hanging holes 144 are arranged to be waist-shaped holes or arc-shaped holes, and the direction of the acting force of the wire hanging hardware fitting 210 on the beam assembly 120 is ensured to be intersected with the central line of the beam assembly 120.

The flange assembly 130 disposed between the support assembly 110 and the beam assembly 120 is likely to cause abnormal discharge near the strong electric field due to the presence of a plurality of irregular contours and the close distance to the first suspension plate 141. As shown in fig. 1, the power transformation frame 100 further includes a shield case 131, and the shield case 131 is covered outside the flange assembly 130 to prevent abnormal discharge.

In addition, as shown in fig. 6, the equalizing ring 160 is further disposed on the cross beam assembly 120 on a side of the first suspension plate 141 away from the flange assembly 130, and the equalizing ring 160 can uniformly distribute high voltage around, so as to ensure that there is no potential difference between each annular portion, thereby achieving an equalizing effect and preventing abnormal discharge.

Further, as shown in fig. 6, at least one side of the second wire hanging plate 142 is also provided with a grading ring 160, respectively, to homogenize an electric field and prevent discharge from occurring. Preferably, the second wire hanging plate 142 is provided with equalizing rings 160 at both sides thereof, respectively.

Similarly, at least one side of the third suspension plate 143 is also provided with a grading ring (not shown) to make an electric field uniform and prevent discharge. Preferably, the third wire hanging plate 143 is provided with equalizing rings on both sides thereof.

In one embodiment, as shown in fig. 1 and 2, each support assembly 110 includes two main support columns 113, each main support column 113 includes a first support 111 and a second support 112, and first support 111 is a composite insulating material. The two main supporting columns 113 are respectively connected with the flange assembly 130, the plane where the axes of the two main supporting columns 113 are located is perpendicular to the first direction, and an included angle of 5-70 degrees is formed between the two main supporting columns 113.

Further, as shown in fig. 2, at least one of the two support assemblies 110 located at two sides further includes an oblique support column 114, the oblique support column 114 is connected to the flange assembly 130 and includes a first support 111 and a second support 112, and the first support 111 is made of a composite insulating material. The diagonal support posts 114 are located out of the plane of the two main support posts 113 to limit deflection of the power transformation frame 100 in the first direction. It should be noted that the diagonal support column 114 is disposed at a side away from the beam assembly 120.

The power transformation frame 100 needs to be grounded, especially the row power transformation frame 100, when the beam assembly 120 is made of composite insulating material and can be directly connected with the wires, it is important how to connect the ground wires because the ground wires and the wires need to keep enough electrical safety distance and also consider the problem of lightning protection. As shown in fig. 7, in an embodiment, the power transformation framework 100 further includes a wiring pillar 150, the wiring pillar 150 is disposed corresponding to the support component 110, the wiring pillar 150 is made of a composite insulating material, the wiring pillar 150 includes a first end 151 disposed on the support component 110 and a second end 152 opposite to the first end 151, the second end 152 is higher than the beam component 120, and the second end 152 of the wiring pillar 150 is used for hanging a ground wire; the second ends 152 of the wiring posts 150 are electrically connected to each other. Through setting up wiring post 150 to because the second end 152 of wiring post 150 is higher than beam assembly 120's height, thereby the second end 152 of wiring post 150 is higher than the wire height, both can guarantee the electrical safety distance between ground wire and the wire, still can play lightning-arrest effect. Since the wiring posts 150 and the first supporting portion 111 are made of insulating materials, the ground wire needs to be connected to the grounding down-lead 153 to complete grounding, and since the installation process of the wiring posts 150 hooking the grounding down-lead 153 is relatively complicated, after the second ends 152 of all the wiring posts 150 are electrically connected, the grounding down-lead 153 is connected to the grounding point along one of the wiring posts 150, so that the overall grounding of the power transformation frame 100 can be realized, and the installation process is convenient. Of course, in other embodiments, the down conductor 153 may be connected to the ground point along a plurality or all of the wiring posts 150, and is not limited herein.

In order to ensure the stable connection between the wiring posts 150 and the beam assembly 120, the direction of the wiring posts 150 and the axis of the supporting assembly 110 are located on the same straight line, that is, the wiring posts 150 are vertically disposed on the beam assembly 120, the axis direction of the wiring posts 150 is consistent with the gravity direction thereof, the wiring posts 150 can be stably disposed on the supporting assembly 110, and specifically, the wiring posts 150 are disposed on the flange assembly 130 between the supporting assembly 110 and the beam assembly 120.

The ground down-lead 153 may be positioned adjacent to the wiring stud 150 when the electrical safety distance between the first end 151 of the wiring stud and the wire-hanging point on the beam assembly 120 where the wire is hung is sufficient.

In an embodiment, when the power transformation frame 100 is a row power transformation frame 100, three or a multiple of three hanging points for hanging wires, such as three, six, or nine, are disposed between two adjacent supporting assemblies 110. Three adjacent wire hanging points are respectively connected with three phases A, B and C, and enough in-phase electrical safety distance needs to be ensured among the three phases A, B and C. It should be noted that, in order to ensure the electrical safety distance between adjacent connection points, when the power transformation framework 100 is the row power transformation framework 100, no wire hanging point is arranged at the connection point between the flange assembly 130 located at the middle position and the beam assemblies 120 located at both sides, or a wire hanging point is arranged at only one side.

In addition, the two nearest wire hanging points on the two sides of the support assembly 110 at the middle position need to satisfy the inter-phase safe electrical distance of the wires hung on the power transformation frame 100.

It should be noted that, when the distance between the wire hooked at the nearest wire hanging point to the support assembly 110 and the support assembly 110 does not satisfy the safe electrical distance between the ground downlead 153 and the wire, a support structure is further required to be additionally provided to ensure the safe electrical distance between the ground downlead 153 and the wire hooked at the wire hanging point, and the distance between the ground downlead 153 and the wire is required to be greater than a first predetermined value.

Specifically, a post insulator (not shown) is disposed at a connection end of the wiring column 150 and the supporting member 110, the post insulator includes a proximal end disposed at the supporting member 110 and a distal end opposite to the proximal end, a distance between the distal end and the wire is greater than a first predetermined value, and the ground down lead 153 is hooked to the distal end by the second end 152 of the wiring column 150 and then is grounded, so as to ensure a safe electrical distance between the ground down lead 153 and the wire hooked at the wire hanging point.

In summary, the first supporting portion 111 of the supporting assembly 110 connected to the beam assembly 120 is made of a composite insulating material, which has excellent electrical insulating properties, so that the electrical safety distance between the conductive wires and the supporting assembly 110 can be reduced, and the width and the land charge of the power transformation frame 100 can be effectively reduced, and the second supporting portion 112 is made of a metal material, thereby achieving the effect of reducing the cost. In addition, the support assembly 110 with the composite structure has light weight and is not easy to rust and crack, so that the problems of transportation, installation and maintenance are solved correspondingly, and the transportation and installation cost is reduced.

Meanwhile, the beam assembly 120 is made of a composite insulating material, has excellent mechanical properties and electrical insulating properties, can be directly connected with a wire in a hanging mode, does not need to adopt a suspension insulator and the like, and can integrally reduce the height of the power transformation framework 100 and reduce the material consumption of the suspension insulator and the like and the material consumption of the supporting assembly 110 after the suspension insulator and the like are cancelled due to the fact that the ground height of the wire is fixed; moreover, because the strain insulator string, the suspension insulator string and the jumper wire are eliminated, the problem of wind deflection discharge possibly existing in the power transformation framework 100 is solved; the power transformation framework 100 made of the composite insulating material is light in weight, not prone to rusting and cracking, low in transportation and installation cost and high in efficiency, can achieve the full life cycle and free of maintenance, and reduces the operation and maintenance cost of the original porcelain insulator string.

The above description is only an embodiment of the present application, and not intended to limit the scope of the present application, and all modifications that can be made by using equivalent structures or equivalent principles in the contents of the specification and the drawings or directly or indirectly applied to other related technical fields are also included in the scope of the present application.

Claims

1. A power transformation architecture, comprising:

the support assembly comprises at least two support assemblies arranged at intervals along a first direction, wherein at least one support assembly comprises a first support part and a second support part which are connected with each other;

the beam assembly is erected between two adjacent support assemblies;

the first supporting part is located between the beam assembly and the second supporting part, the first supporting part is made of composite insulating materials, and the second supporting part is made of metal materials.

2. A power transformation framework as claimed in claim 1, wherein all of said support assemblies comprise said first and second supports.

3. A power transformation framework as claimed in claim 2, wherein said beam assembly is of composite insulating material.

4. A power transformation framework as claimed in claim 3, wherein a flange assembly is provided between the support assembly and the beam assembly, ends of the support assembly and the beam assembly are respectively connected to the flange assembly, the power transformation framework comprising:

the first wiring board is arranged at the joint of the beam assembly and the flange assembly, and is provided with a wiring hole for hanging a wire.

5. A power transformation framework according to claim 4, comprising:

and the shielding shell is covered outside the flange assembly.

6. A power transformation frame as claimed in claim 3, wherein the beam assembly comprises at least two beam sections, adjacent two of the beam sections being connected by flanges, the power transformation frame comprising:

the second suspension plate is arranged at the flange between the adjacent two cross beam sections, and the second suspension plate is provided with a suspension hole for suspending a lead.

7. A power transformation framework as claimed in claim 3, comprising:

the hoop is sleeved on the beam assembly at intervals;

and the third wire hanging plate is arranged on the outer wall of the hoop and provided with a wire hanging hole for hanging a wire.

8. A power transformation framework as claimed in claim 7, wherein the inner hoop wall is provided with a plurality of first slots spaced apart from each other and a plurality of second slots spaced apart from each other, the first slots are arranged around the outer wall of the beam assembly, and the second slots are arranged in a staggered manner with respect to the first slots.

9. A power transformation framework according to any one of claims 4 to 8, wherein the wire hanging holes are used for being connected with wire hanging fittings, and at least one wire hanging hole is a waist-shaped hole or an arc-shaped hole, so that the direction of the acting force of the wire hanging fittings on the cross beam assembly is kept to be intersected with the center line of the cross beam assembly after the wire hanging fittings rotate.

10. A power transformation framework as claimed in claim 3, comprising:

the wiring post corresponds the setting with the supporting component, the wiring post is composite insulating material, the wiring post including set up in the first end of supporting component and with the second end that first end is relative, the height of second end is higher than beam component's height, all the wiring post be connected between the second end electricity, the second end is used for articulating the ground wire, and ground connection downlead is followed at least one the wiring post is connected ground wire and ground point.

11. A power transformation framework according to claim 1, wherein said beam assembly is gradually elevated upwardly in a direction away from said support assemblies on both sides to form an arcuate beam assembly.