CN209747289U - dry-type air-core reactor working group - Google Patents
dry-type air-core reactor working group Download PDFInfo
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- CN209747289U CN209747289U CN201920311444.5U CN201920311444U CN209747289U CN 209747289 U CN209747289 U CN 209747289U CN 201920311444 U CN201920311444 U CN 201920311444U CN 209747289 U CN209747289 U CN 209747289U
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- 230000007704 transition Effects 0.000 claims description 49
- 239000012212 insulator Substances 0.000 claims description 23
- 229910000831 Steel Inorganic materials 0.000 claims description 6
- 239000010959 steel Substances 0.000 claims description 6
- 239000000725 suspension Substances 0.000 claims description 4
- 238000009434 installation Methods 0.000 abstract description 4
- 230000003014 reinforcing effect Effects 0.000 abstract 1
- NMFHJNAPXOMSRX-PUPDPRJKSA-N [(1r)-3-(3,4-dimethoxyphenyl)-1-[3-(2-morpholin-4-ylethoxy)phenyl]propyl] (2s)-1-[(2s)-2-(3,4,5-trimethoxyphenyl)butanoyl]piperidine-2-carboxylate Chemical compound C([C@@H](OC(=O)[C@@H]1CCCCN1C(=O)[C@@H](CC)C=1C=C(OC)C(OC)=C(OC)C=1)C=1C=C(OCCN2CCOCC2)C=CC=1)CC1=CC=C(OC)C(OC)=C1 NMFHJNAPXOMSRX-PUPDPRJKSA-N 0.000 description 10
- 230000005684 electric field Effects 0.000 description 4
- 230000015556 catabolic process Effects 0.000 description 2
- 238000010586 diagram Methods 0.000 description 2
- 239000002184 metal Substances 0.000 description 2
- 238000012986 modification Methods 0.000 description 2
- 230000004048 modification Effects 0.000 description 2
- 238000012216 screening Methods 0.000 description 2
- 230000001939 inductive effect Effects 0.000 description 1
- 238000009413 insulation Methods 0.000 description 1
- 238000000034 method Methods 0.000 description 1
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Abstract
The utility model provides a dry-type air-core reactor workgroup, it includes at least three dry-type air-core reactor that connects gradually, has wherein that vertical dry-type air-core reactor is arranged to at least two and at least one is located arranging into horizontal dry-type air-core reactor to arranging between these two vertical dry-type air-core reactors. The reactor arranged vertically and the reactor arranged horizontally are connected to each other by a support shield provided with a horizontal plate member and a vertical plate member. The utility model discloses a dry-type air-core reactor work group has can make full use of eminence space, saves area, mechanical connection stability reinforcing and to advantages such as installation site condition adaptability height.
Description
Technical Field
The utility model belongs to the inductive equipment field, concretely relates to contain and arrange into horizontal dry-type air-core reactor work group of reactor, it includes that at least two arrange into vertical dry-type air-core reactor and at least one be located two arrange into horizontal dry-type air-core reactor and arrange into between the vertical dry-type air-core reactor.
Background
In the current power system, the voltage level gradually rises, and the insulation distance between some power devices needs to be increased due to the consideration of electrical safety distance, so that the occupied area is increased, and the situation is particularly serious in the occasions with numerous power devices and high voltage levels. In order to relieve the ground pressure, a plurality of air-core reactors are arranged in a mode that a plurality of devices are stacked up and down. However, since the voltage class is increased, the difficulty of insulating the reactor from the ground is increased, which means that a higher post insulator is required to ensure the creepage distance. Due to the fact that the installation mode and the supporting height of the reactors stacked up and down are improved, the anti-seismic performance of the structure is weakened, and the reactors are easily damaged by earthquakes.
In order to solve the above contradiction, reduce the occupied area of the air reactor and ensure the anti-seismic performance, a dry type air reactor working group suitable for places with a large demand on the types and the quantity of the reactors but without the need of all the reactors working simultaneously needs to be provided.
SUMMERY OF THE UTILITY MODEL
The utility model aims at providing an air-core reactor work group can save area, can guarantee anti-seismic performance again simultaneously.
The utility model provides a dry-type air-core reactor work group includes two at least dry-type air-core reactor that connect gradually. Wherein there is at least one dry air reactor arranged vertically and at least one dry air reactor arranged horizontally.
Preferably, the dry-type air-core reactor working group at least comprises a first vertical dry-type air-core reactor, a second vertical dry-type air-core reactor, a first transverse dry-type air-core reactor, a first supporting and shielding device and a second supporting and shielding device. The lower side of the first vertical dry air reactor is connected to the upper plate member of the first supporting shield by fasteners. Each of the booms at one end of the first lateral dry air reactor is connected to the riser member of the first support shield by a fastener, and each of the booms at the other end of the first lateral dry air reactor is connected to the riser member of the second support shield by a fastener. The lower side of each of the booms of the second vertical dry-type air reactor is connected to the upper plate member of the second supporting and shielding device by fasteners.
Preferably, each of the first supporting and shielding device and the second supporting and shielding device includes the upper plate member, the lower plate member, and the riser member, the upper plate member and the lower plate member are respectively and fixedly connected with the upper end portion and the lower end portion of the riser member in a manner perpendicular to the riser member, and the upper plate member and the lower plate member are further connected and reinforced by an i-steel bracket member. Each of the upper plate member, the lower plate member, and the vertical plate member is provided with a number of transition support members corresponding to the number of booms of the dry type air reactors each configured to be connected, each transition support member on the upper plate member is configured to be connected with a dry type air reactor or a post insulator arranged in the vertical direction, each transition support member on the lower plate member is configured to be connected with a dry type air reactor or a post insulator arranged in the vertical direction, and each transition support member on the vertical plate member is configured to be connected with a dry type air reactor arranged in the horizontal direction.
preferably, the dry-type air-core reactor working group at least comprises a first vertical dry-type air-core reactor, a second vertical dry-type air-core reactor, a first transverse dry-type air-core reactor, a first supporting and shielding device and a second supporting and shielding device. The upper side of the first vertical dry-type air reactor is connected to the lower plate member of the first supporting shield device. Each of the booms at one end of the first lateral dry air reactor is connected to a riser member of the first support shield and each of the booms at the other end of the first lateral dry air reactor is connected to a riser member of the second support shield. The upper side of the second vertical dry-type air reactor is connected to the lower plate member of the second supporting and shielding device.
Preferably, each of the first support shield and the second support shield includes the lower plate member and the riser member, the lower plate member is connected to a lower end portion of the riser member in a perpendicular manner to the riser member, the lower plate member and the riser member are respectively provided with a number of transition support members corresponding to the number of the booms of the dry type air reactor to which they are respectively configured to be connected, the transition support members on the lower plate member are respectively configured to be connected with the booms of the dry type air reactor arranged in the vertical direction, and the transition support members on the riser member are respectively configured to be connected with the booms of the dry type air reactor arranged in the horizontal direction.
Preferably, the dry-type air reactor working group at least comprises a first vertical dry-type air reactor, a second vertical dry-type air reactor, a third vertical dry-type air reactor, a first horizontal dry-type air reactor, a second horizontal dry-type air reactor, a first supporting and shielding device, a second supporting and shielding device, a third supporting and shielding device and a fourth supporting and shielding device. Each of the lower side booms of the first vertical dry-type air-core reactor is connected to an upper plate member of the first supporting shield device. Each of the booms at one end of the first lateral dry air reactor is connected to a riser member of the first support shield and each of the booms at the other end of the first lateral dry air reactor is connected to a riser member of the second support shield. The lower side of each of the second vertical dry air reactor booms is connected to the upper plate member of the second support shield, and the upper side of each of the second vertical dry air reactor booms is connected to the horizontal plate member of the third support shield. Each of the booms at one end of the second lateral dry air reactor is connected to the riser member of the third support shield and each of the booms at the other end of the second lateral dry air reactor is connected to the riser member of the fourth support shield. The upper side of each of the third vertical dry air reactor booms is connected to the horizontal plate member of the fourth supporting and shielding means.
Preferably, each of the first and second supporting and shielding devices includes the upper plate member, the lower plate member, and the riser member, the upper plate member and the lower plate member are fixedly connected to the upper end portion and the lower end portion of the riser member respectively in a manner perpendicular to the riser member, the upper plate member and the lower plate member are connected and reinforced by i-steel bracket members, each of the upper plate member, the lower plate member, and the riser member is provided with a number of transition support members corresponding to the number of suspension arms of the dry type air core reactor to which they are respectively configured to be connected, each transition support member on the upper plate member is configured to be connected to the dry type air core reactor or the post insulator arranged in the vertical direction, each transition support member on the lower plate member is configured to be connected to the dry type air core reactor or the post insulator arranged in the vertical direction, each transition support member on the riser member is configured for connection with a dry air reactor arranged in a lateral direction. Each of the third support shield and the fourth support shield includes the horizontal plate member and the riser member, the horizontal plate member being connected to a lower end portion of the riser member in a perpendicular manner to the riser member, the horizontal plate member and the riser member being respectively provided with transition support members in a number corresponding to a number of the booms of the dry air reactor to which they are respectively connected, the transition support members of the horizontal plate member being configured to be connected with the respective booms of the dry air reactor arranged in the vertical direction, the transition support members of the riser member being configured to be connected with the respective booms of the dry air reactor arranged in the lateral direction.
The utility model provides a dry-type air-core reactor working group comes vertical arrangement's reactor and horizontal arrangement's reactor interconnect through the support shield assembly who disposes horizontal plate component and riser component, constitutes the reactor working group that includes both vertical reactor and horizontal reactor.
Compared with the traditional mode that the air-core reactors are all vertically arranged, the reactor working group formed by arrangement can more fully utilize high space, and the floor area of the reactor working group is saved. In addition, the transversely arranged reactors serve as the cross beam between the two vertically arranged reactors for connection, the mechanical connection stability between the reactors is further enhanced, and the anti-seismic performance of the whole reactor working group is further improved.
in addition, with the help of supporting shield assembly's configuration and structure, can change in a flexible way the utility model provides a trend of dry-type air reactor work group to improve the adaptability to the installation site condition, increase the structural stability of whole dry-type air reactor work group simultaneously.
Drawings
In order to more clearly illustrate the technical solution of the present invention, the following briefly introduces the drawings required for describing the embodiments:
Figure 1 is a front view schematically illustrating at least a portion of an exemplary dry air reactor working group of the present invention;
figure 2 is a front view schematically illustrating at least a portion of another example dry air reactor working group of the present invention;
Figure 3 is a front view schematically illustrating at least a portion of yet another example dry air reactor working group of the present invention;
FIG. 4 is a diagram illustrating the structure of an exemplary supporting shield; and
fig. 5 is a diagram illustrating a structure of another exemplary supporting shield apparatus.
Detailed Description
The following description of the embodiments and examples of the present invention will be provided in order to make the technical solutions of the present invention more clear and complete.
the dry type air core reactor working group of the application comprises at least three dry type air core reactors (which will be simply referred to as reactors hereinafter) connected in sequence, wherein at least two reactors arranged in the vertical direction and at least one reactor arranged in the transverse direction is arranged between the two reactors arranged in the vertical direction. The reactors may be connected and supported by support shields and/or post insulators, with adjacent reactors being interconnected by support shields.
Fig. 4 shows an exemplary supporting screen 1, the supporting screen 1 being composed primarily of an upper plate member 7, a lower plate member 8, and a riser member 9. The upper and lower plate members 7, 8 may be configured as horizontally oriented plate members that are connected to the upper and lower ends of the riser members 9, respectively, at right angles to the riser members 9, forming a generally U-shaped structure.
As shown in fig. 4, the upper plate member 7 and the lower plate member 8 are further connected by an i-steel bracket 11. The upper 7, lower 8 and riser 9 members are preferably constructed with hollowed out middle and/or chamfered edges.
The upper plate member 7, the lower plate member 8 and the vertical plate member 9 are provided with a plurality of transition support members 3 for connection to respective arms of the reactor end hanger or the post insulators 6, respectively. The number of transition support members 3 of each of the upper plate member 7, the lower plate member 8 and the riser member 9 corresponds to the number of booms of reactors to which each of them needs to be connected. In fig. 4, it is shown that eight transition support members 3 are provided on the upper plate member 7, the lower plate member 8, and the riser member 9, respectively, the eight support members 3 being arranged two by two symmetrically and at intervals along a circle, which configuration is applicable to a reactor having eight booms.
the upper plate member 7 and the lower plate member 8 are further respectively connected with a corona rod 12, and the corona rod 12 is surrounded outside the outer edge of the corresponding upper plate member 7 or lower plate member 8 and used for reducing the surface electric field intensity of the supporting shielding device 1 and preventing air breakdown caused by overlarge electric field intensity at the metal corner.
Fig. 5 shows another exemplary supporting shielding device 1 ' which is composed primarily of lower plate members (horizontal plate members) 8 ' and riser members 9 '. The lower plate member 8 'may be configured to be a horizontally oriented plate member, with the lower plate member 8' being connected to the lower end of the riser member 9 'in a manner perpendicular to the riser member 9', forming a generally L-shaped structure. The lower plate member 8 'and the vertical plate member 9' are also connected and reinforced through a channel steel stay rib member 13.
A plurality of transition support members 3 are respectively arranged on the outer side surfaces of the lower plate member 8 'and the vertical plate member 9'. The support members 3 on the lower plate member 8 'are arranged for connection to the arms of the reactor or to the post insulators 6, and the transition support members 3 on the riser member 9' are arranged for connection to the arms of the reactor. The number of transition support members 3 on the lower plate member 8 'and the riser member 9' corresponds to the number of booms of the reactors to which they each need to be connected. In fig. 5, eight seat members 3 are shown provided on the lower plate member 8 'and the vertical plate member 9', respectively, and applicable to a reactor having eight booms. The eight seat members 3 are arranged two by two symmetrically and at intervals along the circular ring.
The lower plate member 8 ' and the riser member 9 ' are further respectively connected with corona rods 12 ', and the corona rods 12 ' surround the outer sides of the outer edges of the corresponding lower plate member 8 ' or riser member 9 ' and are used for reducing the surface electric field intensity of the supporting and shielding device 1 ' and preventing air breakdown caused by overlarge electric field intensity at the metal corners.
several embodiments of the dry-type air-core reactor working group formed by connecting and supporting the supporting shield 1 and/or the supporting shield 1' and the post insulator are described below.
Example 1
Fig. 1 schematically illustrates at least a part of a dry air reactor working group according to an embodiment of the present invention, specifically illustrating two vertically arranged reactors and one horizontally arranged reactor. For convenience of description, the three reactors shown in fig. 1 are referred to as a first vertical reactor 5a, a first lateral reactor 5b, and a second vertical reactor 5c in this order from left to right.
The first vertical reactor 5a is supported by the first supporting shield 1 and a plurality of post insulators 6. Specifically, each of the booms constituting the lower side hanger 4 of the first vertical reactor 5a is connected to the corresponding transition support member 3 (see fig. 4) on the upper plate member 7 of the first supporting shield 1 by a fastener (not shown) such as a bolt, so that the first vertical reactor 5a is stably connected to the first supporting shield 1 and located above the supporting shield 1. The first support screen 1 may be provided with post insulators 6 below as desired, each post insulator 6 being connectable to a corresponding transition support member 3 on the lower plate member 8 of the support screen 1 by fasteners such as bolts. Each post insulator 6 coincides with the longitudinal axis of the corresponding transition support member 3 on the upper plate member 7 and the lower plate member 8, and the number of post insulators 6 and the number of transition support members 3 on the upper plate member 7 and the lower plate member 8 are all the same as the number of booms of the hangers 4 on the lower side of the first vertical reactor 5 a.
The booms of the hanger 4 at one end of the first transverse reactor 5b are respectively connected with the corresponding transition support members 3 on the vertical plate member 9 of the first supporting and shielding device 1 through fasteners, and the booms of the hanger 4 at the other end of the first transverse reactor 5b are respectively connected with the corresponding transition support members 3 on the vertical plate member 9 of the second supporting and shielding device 1 through fasteners. That is, the first lateral reactor 5b is fixedly supported by the first supporting and shielding device 1 and the second supporting and shielding device 1 together.
The respective booms of the hangers 4 under the second vertical reactor 5c are connected by fasteners to the corresponding transition support members 3 on the upper plate member 7 of the second supporting screen 1, so that the second vertical reactor 5c is firmly connected to the second supporting screen 1 and above the supporting screen 1. A plurality of post insulators 6 may be provided below the second supporting shield 1 as desired, and each post insulator 6 may be connected to a corresponding transition support member 3 on the lower plate member 8 by a fastener such as a bolt. The longitudinal axes of the transition support members 3 on the upper plate member 7 and the lower plate member 8 are coincided with the longitudinal axes of the corresponding transition support members 3 on each post insulator 6, and the number of the post insulators 6 and the number of the transition support members 3 on the upper plate member 7 and the lower plate member 8 are consistent with the number of the suspension arms of the suspension bracket 4 on the lower side of the second vertical reactor 5 c.
example 2
Fig. 2 schematically illustrates at least a part of another exemplary dry air reactor working group according to the present invention, specifically illustrating two vertically arranged reactors and one horizontally arranged reactor, wherein two adjacent reactors are connected by a supporting shield 1'. For convenience of description, three reactors from left to right in fig. 2 are referred to as a first vertical reactor 5d, a first horizontal reactor 5e, and a second vertical reactor 5f, respectively.
Each boom of the upper side hanger 4 of the first vertical reactor 5d is connected by fasteners to a respective transition support member 3 on the lower plate member 8 'of the first supporting screening device 1'.
Each arm of the hanger 4 at one end of the first transverse reactor 5e is connected to a corresponding transition support member 3 on the riser member 9 ' of the first supporting shield 1 ' by a fastener, and each arm of the hanger 4 at the other end of the first transverse reactor 5e is connected to a corresponding transition support member 3 on the riser member 9 ' of the second supporting shield 1 ' by a fastener, so that the first transverse reactor 5e is supported and fixed by the two supporting shields 1 '.
Each boom of the upper side hanger 4 of the second vertical reactor 5f is connected by fasteners to a respective transition support member 3 on the lower plate member 8 'of the second supporting screening device 1'.
example 3
Fig. 3 schematically illustrates at least a part of still another exemplary dry-type air-core reactor working group of the present invention, which is generally formed by combining the above-described dry-type reactor groups of embodiment 1 shown in fig. 1 and embodiment 2 shown in fig. 2, and specifically illustrates three vertically arranged reactors and two horizontally arranged reactors, which are connected and supported by the supporting and shielding device 1 shown in fig. 4, the supporting and shielding device 1' shown in fig. 5, and the post insulator 6.
Although three exemplary embodiments of the present application are described in detail above, it should be understood by those skilled in the art that the technical solutions of the present application are by no means limited to the three embodiments shown above. The number of reactors can be increased by further expanding in the lateral and longitudinal directions on the basis of the above-described three embodiments, for example, the first vertical reactor 5a and the second vertical reactor 5c in embodiment 1 shown in fig. 1 can also be connected with other reactors arranged vertically or laterally by supporting the shielding means thereabove, and the vertical reactors 5d and 5f in embodiment 2 shown in fig. 2 can be connected with other reactors arranged vertically or laterally.
The above description has been made in connection with the accompanying drawings, the detailed description, and the examples to connect a vertically arranged reactor and a horizontally arranged reactor to each other by a support shield device configured with a horizontal plate member and a vertical plate member, and to constitute a reactor working group including both the vertical reactor and the horizontal reactor. Compared with the traditional mode that the air-core reactors are all vertically arranged, the reactor working group formed by arrangement can more fully utilize high space, and the floor area of the reactor working group is saved. In addition, the transversely arranged reactors serve as the cross beam between the two vertically arranged reactors for connection, the mechanical connection stability between the reactors is further enhanced, and the anti-seismic performance of the whole reactor working group is further improved.
a plurality of seat members are provided on the horizontal plate member (i.e., the upper plate member 7, the lower plate members 8, 8 ') and the vertical plate member (i.e., the vertical plate members 9, 9') in the supporting shield device, respectively, and are arranged at intervals along the same circumference having the same radius as the radius of the circumference at which the connection terminals on the respective arms of the reactor end hanger are located. That is, the reactor can be connected with the horizontal plate member or the vertical plate member supporting the shielding device in various orientations, thereby making it possible to flexibly arrange the direction of the entire reactor active group as needed. Therefore, the adaptability to the installation site conditions of the reactor working group can be improved, and the structural stability of the whole reactor working group can be improved.
Although the method of arranging two reactors arranged vertically in a horizontal direction in two reactor arrangements has been described in the embodiments and examples with reference to the drawings, it will be understood by those skilled in the art that other forms of supporting and shielding device may be used to arrange two reactors arranged vertically in a horizontal direction between two dry air reactors arranged vertically to form a dry air reactor working group of the present application without departing from the spirit of the present invention.
The above description of the embodiments and examples of the present invention is intended to enable those skilled in the art to make or practice the invention, but the scope of the invention is not limited to the above embodiments and examples. Various changes and modifications to the above embodiments may be made by those skilled in the art without departing from the spirit of the invention, and these changes and modifications also fall within the scope of the invention.
For example, due to different practical engineering requirements, a certain number of multiple stacks of reactors arranged vertically in each group may occur, and a certain number of multiple series connections of reactors arranged horizontally may also occur, not limited to the case where there is only one reactor arranged vertically or horizontally in each segment in the embodiment. In addition, since the supporting shield device can rotate in a horizontal plane, the actual reactor arrangement direction is not limited to the same vertical plane.
thus, the present invention is not intended to be limited to the embodiments shown herein but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.
Claims (7)
1. the utility model provides a dry-type air-core reactor working group, its includes the dry-type air-core reactor that at least three connect gradually which characterized in that: wherein there are at least two vertically arranged dry air reactors and at least one horizontally arranged dry air reactor located between the two vertically arranged dry air reactors.
2. A dry-type air-core reactor working group according to claim 1, characterized in that: the dry-type air reactor working group at least comprises a first vertical dry-type air reactor, a second vertical dry-type air reactor, a first transverse dry-type air reactor, a first supporting and shielding device and a second supporting and shielding device,
The lower side of the first vertical dry-type air core reactor is connected to the upper plate member of the first supporting shield by fasteners,
Each of the hanger arms at one end of the first lateral dry air reactor is connected to the riser member of the first support shield by a fastener, each of the hanger arms at the other end of the first lateral dry air reactor is connected to the riser member of the second support shield by a fastener,
The lower side of each of the booms of the second vertical dry-type air reactor is connected to the upper plate member of the second supporting and shielding device by fasteners.
3. A dry-type air-core reactor working group according to claim 2, characterized in that: each of the first supporting and shielding device and the second supporting and shielding device comprises the upper plate member, the lower plate member and the vertical plate member, the upper plate member and the lower plate member are respectively and fixedly connected with the upper end part and the lower end part of the vertical plate member in a mode of being perpendicular to the vertical plate member, and the upper plate member and the lower plate member are further connected and reinforced through an I-shaped steel support member,
Each of the upper plate member, the lower plate member, and the vertical plate member is provided with a number of transition support members corresponding to the number of booms of the dry type air reactors each configured to be connected, each transition support member on the upper plate member is configured to be connected with a dry type air reactor or a post insulator arranged in the vertical direction, each transition support member on the lower plate member is configured to be connected with a dry type air reactor or a post insulator arranged in the vertical direction, and each transition support member on the vertical plate member is configured to be connected with a dry type air reactor arranged in the horizontal direction.
4. A dry-type air-core reactor working group according to claim 1, characterized in that: the dry-type air reactor working group at least comprises a first vertical dry-type air reactor, a second vertical dry-type air reactor, a first transverse dry-type air reactor, a first supporting and shielding device and a second supporting and shielding device,
The upper side of the first vertical dry-type air reactor is connected to the lower plate member of the first supporting shield,
Each of the booms at one end of the first lateral dry air reactor is connected to a riser member of the first support shield, each of the booms at the other end of the first lateral dry air reactor is connected to a riser member of the second support shield,
The upper side of the second vertical dry-type air reactor is connected to the lower plate member of the second supporting and shielding device.
5. A dry-type air-core reactor working group according to claim 4, characterized in that: each of the first support shield and the second support shield includes the lower plate member and the riser member, the lower plate member is connected to a lower end portion of the riser member in a perpendicular manner to the riser member, the lower plate member and the riser member are respectively provided with a number of transition support members corresponding to the number of the booms of the dry type air reactor to which they are respectively configured to be connected, the transition support members on the lower plate member are respectively configured to be connected with the booms of the dry type air reactor arranged in a vertical direction, and the transition support members on the riser member are respectively configured to be connected with the booms of the dry type air reactor arranged in a horizontal direction.
6. A dry-type air-core reactor working group according to claim 1, characterized in that: the dry-type air reactor working group at least comprises a first vertical dry-type air reactor, a second vertical dry-type air reactor, a third vertical dry-type air reactor, a first transverse dry-type air reactor, a second transverse dry-type air reactor, a first supporting and shielding device, a second supporting and shielding device, a third supporting and shielding device and a fourth supporting and shielding device,
the lower side of the first vertical dry-type air reactor is connected to the upper plate member of the first supporting shield,
each of the booms at one end of the first lateral dry air reactor is connected to a riser member of the first support shield, each of the booms at the other end of the first lateral dry air reactor is connected to a riser member of the second support shield,
The lower side of each of the second vertical dry air reactor booms is connected to the upper plate member of the second support shield, the upper side of each of the second vertical dry air reactor booms is connected to the horizontal plate member of the third support shield,
Each of the booms at one end of the second lateral dry air reactor is connected to the riser member of the third support shield, each of the booms at the other end of the second lateral dry air reactor is connected to the riser member of the fourth support shield,
the upper side of each of the third vertical dry air reactor booms is connected to the horizontal plate member of the fourth supporting and shielding means.
7. A dry-type air-core reactor working group according to claim 6, characterized in that:
Each of the first and second supporting and shielding devices includes the upper plate member, the lower plate member, and the riser member, the upper plate member and the lower plate member are fixedly connected to upper and lower end portions of the riser member respectively in a manner perpendicular to the riser member, the upper plate member and the lower plate member are connected and reinforced by i-steel bracket members, each of the upper plate member, the lower plate member, and the riser member is provided with transition support members in the number corresponding to the number of the suspension arms of the dry type hollow reactor to which they are respectively configured to be connected, each transition support member on the upper plate member is configured to be connected to a dry type hollow reactor or a support insulator arranged in a vertical direction, each transition support member on the lower plate member is configured to be connected to a dry type hollow reactor or an insulator support arranged in a vertical direction, each transition support member on the vertical plate member is configured to be connected with a dry-type air-core reactor arranged in a transverse direction;
Each of the third support shield and the fourth support shield includes the horizontal plate member and the riser member, the horizontal plate member being connected to a lower end portion of the riser member in a perpendicular manner to the riser member, the horizontal plate member and the riser member being respectively provided with transition support members in a number corresponding to a number of the booms of the dry air reactor to which they are respectively connected, the transition support members of the horizontal plate member being configured to be connected with the respective booms of the dry air reactor arranged in the vertical direction, the transition support members of the riser member being configured to be connected with the respective booms of the dry air reactor arranged in the lateral direction.
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| Application Number | Priority Date | Filing Date | Title |
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| CN201920311444.5U CN209747289U (en) | 2019-03-12 | 2019-03-12 | dry-type air-core reactor working group |
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| CN201920311444.5U CN209747289U (en) | 2019-03-12 | 2019-03-12 | dry-type air-core reactor working group |
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| CN209747289U true CN209747289U (en) | 2019-12-06 |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN109786071A (en) * | 2019-03-12 | 2019-05-21 | 北京电力设备总厂有限公司 | Contain the dry-type air-core reactor working group for being arranged to lateral reactor |
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2019
- 2019-03-12 CN CN201920311444.5U patent/CN209747289U/en not_active Withdrawn - After Issue
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN109786071A (en) * | 2019-03-12 | 2019-05-21 | 北京电力设备总厂有限公司 | Contain the dry-type air-core reactor working group for being arranged to lateral reactor |
| CN109786071B (en) * | 2019-03-12 | 2024-03-01 | 北京电力设备总厂有限公司 | Dry air reactor operating group comprising reactors arranged in transverse direction |
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Inventor after: Ma Xin Inventor after: Jiang Guanping Inventor after: Yang Yuemin Inventor after: Chen Yilong Inventor after: Zhao Yang Inventor after: Wang Zhen Inventor after: Liu Chengzhu Inventor after: Zhang Meng Inventor before: Ma Xin Inventor before: Jiang Guanping Inventor before: Chen Yilong Inventor before: Zhao Yang Inventor before: Wang Zhen Inventor before: Liu Chengzhu Inventor before: Zhang Meng |
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