Tile turning auxiliary device for steam turbine rotor

Abstract

The invention relates to the technical field of steam turbine rotor tile turning, in particular to a steam turbine rotor tile turning auxiliary device which comprises a storage assembly, a tile turning assembly, a tile turning assembly and a tile turning assembly, the storage assembly comprises a containing part, a placing part and a moving part, and the placing part and the moving part are arranged on the containing part; the first lifting assembly comprises an auxiliary part, a pushing part and an extruding part, the auxiliary part is arranged on the containing part, the pushing part is arranged on the auxiliary part, and the extruding part is arranged on the pushing part; the second lifting assembly comprises a connecting piece, a rotating piece and a fixing piece, the connecting piece is arranged on the moving piece, the rotating piece and the fixing piece are arranged on the connecting piece, by arranging the storage assembly and the first lifting assembly, accurate lifting of any position is achieved, uniform stress and stability of the rotor in the lifting process are ensured, and the stability of the rotor is improved. And through cooperative use of the second lifting column assembly, wrapping clamping of the rotor is achieved, stable lifting support is provided, and shaking in the lifting process is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of turbine rotor tile turning, and in particular to an auxiliary device for turbine rotor tile turning. Background Art

[0002] During minor repairs of the feed pump turbine, it is an important task to turn over the lower bearing bearing for inspection; lifting the rotor is a key step in the turning over process;

[0003] The existing method is to use a hand winch to pull up the rotor, and then use a copper rod to knock on one side of the lower bearing to turn out the bearing. However, this method is not easy to control the lifting height during the shaft lifting process, and only using a hand winch, wire rope, hanging point and other connections will cause safety risks and maintenance efficiency problems after the rotor is lifted due to unstable lifting. In severe cases, the rotor will fall back, causing a greater risk. In addition, the size applicable to the rotor lifting operation is not flexible, and it is impossible to lift according to rotors of different sizes, and the size of the lifting operation equipment needs to be further replaced. Summary of the invention

[0004] The present invention is proposed in view of the above-mentioned problems that the process of lifting the rotor during the tile turning inspection is unstable and the rotor size applicable to the lifting operation is inflexible.

[0005] Therefore, an object of the present invention is to provide a turbine rotor tile turning auxiliary device.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions: comprising:

[0007] A storage component, comprising a receiving part, a placing part and a moving part, wherein the placing part and the moving part are arranged on the receiving part;

[0008] A first lifting component includes an auxiliary member, a pushing member and an extruding member, wherein the auxiliary member is arranged on the accommodating member, the pushing member is arranged on the auxiliary member, and the extruding member is arranged on the pushing member; and

[0009] The second lifting component includes a connecting member, a rotating member and a fixing member. The connecting member is arranged on the moving member, and the rotating member and the fixing member are arranged on the connecting member.

[0010] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the accommodating part includes a bearing box, a connecting plate, a movable groove, an embedded plate and a groove to be embedded, the connecting plate is arranged on the bearing box, the movable groove is arranged on the connecting plate, the embedded plate is arranged on the movable groove, and the groove to be embedded is arranged on the embedded plate.

[0011] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the placement component includes a storage groove, an embedded block, a drop groove and a drop block, the storage groove and the embedded block are arranged on the bearing box, the drop groove is arranged on the storage groove, and the drop block is arranged on the embedded plate.

[0012] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the movable part includes an adjusting groove, a transverse displacement groove, a moving rod, a lifting column, an adapting groove and a lifting plate, the adjusting groove and the transverse displacement groove are arranged on the connecting plate, the moving rod is arranged on the transverse displacement groove, the lifting column is arranged on the moving rod, and the adapting groove and the lifting plate are arranged on the lifting column.

[0013] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the auxiliary part includes an operating groove, a pushing groove, an inclined groove and an embedded groove, the operating groove is arranged on the embedded plate, the pushing groove is arranged on the operating groove, the inclined groove is arranged on the embedded plate, and the embedded groove is arranged on the connecting plate.

[0014] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the pushing member includes a movable shaft, a pushing column and an inclined surface, the movable shaft is arranged on the inclined groove, the pushing column is arranged on the movable shaft, and the inclined surface is arranged on the pushing column.

[0015] As a preferred solution of the turbine rotor flap-turning auxiliary device described in the present invention, the extrusion part includes a first spring, an arc plate, a connecting inclined surface and a contact surface, the first spring is arranged on the inclined surface, the arc plate is arranged on the first spring, and the connecting inclined surface and the contact surface are arranged on the arc plate.

[0016] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the connecting part includes a connecting hole, a bolt, a connecting frame and a lifting hole, the connecting hole is arranged on the lifting column, the bolt is arranged on the connecting hole, the connecting frame is arranged on the bolt, and the lifting hole is arranged on the connecting frame.

[0017] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the rotating part includes a rotating groove, a support shaft and a rotating block, the rotating groove is arranged on the connecting frame, the support shaft is arranged on the rotating groove, and the rotating block is arranged on the support shaft.

[0018] As a preferred solution of the turbine rotor tile turning auxiliary device described in the present invention, the fixing part includes a rotating groove, a rotating rod, a pushing surface, an external surface, a hidden surface and a positioning surface, the rotating groove is arranged on the connecting frame, the rotating rod is arranged on the rotating groove, and the pushing surface and the external surface, the hidden surface and the positioning surface are arranged on the rotating block.

[0019] The beneficial effects of the present invention are as follows: by setting a storage component and a first lifting component, the present invention can realize precise lifting of any position of the rotor, ensuring uniform force and stability of the entire rotor during the lifting process; the clamping rotor design of the present invention has good size accommodation capacity, can adapt to rotors of different sizes, and greatly improves the flexibility and scope of application of the lifting work; adopts a modular design concept, so that the storage component and the first lifting component can be adjusted according to the specific size and shape of the rotor to meet diverse maintenance needs; through the coordinated use of the second lifting column assembly, the present invention can achieve wrapping clamping of the rotor, provide more stable lifting support, and effectively avoid shaking or deviation of the rotor during the lifting process; the design of the entire lifting device fully considers the safety of operation, and through wrapping clamping and multi-point support, the risk of the rotor falling back is significantly reduced, thereby ensuring the safety of maintenance personnel; because the lifting device of the present invention can quickly adapt to the sizes and shapes of different rotors, the preparation time before lifting is greatly reduced, thereby improving the efficiency of maintenance work. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0021] Figure 1 The present invention is a schematic diagram of the overall structure of a turbine rotor tile turning auxiliary device.

[0022] Figure 2 The present invention is a schematic diagram of the overall side view structure of a turbine rotor tile turning auxiliary device.

[0023] Figure 3 The present invention is a schematic diagram of the connection structure of a receiving member and a placing member used in a turbine rotor tile turning auxiliary device.

[0024] Figure 4 The present invention is a partial structural schematic diagram of a storage component for a turbine rotor tile turning auxiliary device.

[0025] Figure 5The present invention is a schematic structural diagram of a first lifting assembly for a turbine rotor tile turning auxiliary device.

[0026] Figure 6 The present invention is a schematic diagram of the structure of a second lifting assembly for a turbine rotor tile turning auxiliary device.

[0027] Figure 7 The present invention is a schematic diagram of a partial cross-sectional structure of a second lifting assembly of a turbine rotor tile turning auxiliary device.

[0028] Figure 8 The present invention is a schematic diagram of the structure of a fixing member used in a turbine rotor tile turning auxiliary device. DETAILED DESCRIPTION

[0029] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the accompanying drawings.

[0030] In the following description, many specific details are set forth to facilitate a full understanding of the present invention, but the present invention may also be implemented in other ways different from those described herein, and those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0031] Secondly, the term "one embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The term "in one embodiment" that appears in different places in this specification does not necessarily refer to the same embodiment, nor is it a separate or selective embodiment that is mutually exclusive with other embodiments.

[0032] Secondly, the present invention is described in detail with reference to the schematic diagram. When describing the embodiments of the present invention in detail, for the sake of convenience, the cross-sectional diagrams showing the device structure will not be partially enlarged according to the general scale, and the schematic diagrams are only examples, which should not limit the scope of protection of the present invention. In addition, in actual production, the three-dimensional dimensions of length, width and depth should be included.

[0033] Example 1

[0034] Reference Figure 1 - Figure 4, which is the first embodiment of the present invention, provides an auxiliary device for turning the turbine rotor tiles, the device includes a storage component 100, including a receiving component 101, a placing component 102 and a moving component 103, the placing component 102 and the moving component 103 are arranged on the receiving component 101, and the placing component 102 and the moving component 103 act on the receiving component 101, so that the entire storage component 100 can realize the storage of the rotor lifting structure so that it will not affect the original use of the turbine rotor, and can be moved at will to perform the rotor lifting operation.

[0035] Specifically, the accommodating member 101 includes a bearing box 101a, a connecting plate 101b, a movable groove 101c, an inner plate 101d and a groove to be embedded 101e. The bearing box 101a can make the rotor inside it and a bearing box 101a is provided at both ends of the rotor. The connecting plate 101b is arranged on the bearing box 101a, and the connecting plate 101b is fixedly connected to the bearing box 101a. The connecting plate 101b is arranged between the two bearing boxes 101a. The movable groove 101c is arranged on the connecting plate 101b. The movable groove 101c is arranged on the connecting plate 101b. Two movable grooves 101c are arranged on one connecting plate 101b. The two movable grooves 101c are stacked so that a groove of a certain width is left in the middle position of the connecting plate 101b. The inner plate 101d is arranged in the movable groove 101c. The inner plate 101d moves It is connected to the movable groove 101c, and the inner plate 101d is a structure after the "convex" character is rotated 180 degrees, and a part of the wider part on the upper side is cut off so that a semicircular arc shape is left on the top of the inner plate 101d, and the narrower part is in the movable groove 101c, so that the entire inner plate 101d can move in the movable groove 101c, wherein the semicircular arc shape on the top of the inner plate 101d can be used to contact the rotor to facilitate further lifting of the rotor to assist in the tile turning work, and the groove 101e to be embedded is set on the inner plate 101d, and the groove 101e to be embedded is opened on the inner plate 101d. The groove 101e to be embedded is opened at the lower side of the inner plate 101d, so that a groove of a certain width and length is left between the inner plates 101d, which is convenient for other objects to enter the groove 101e to be embedded to achieve connection with the inner plate 101d.

[0036] Furthermore, the placement member 102 includes a storage slot 102a, an embedded block 102b, a drop slot 102c and a drop block 102d. The storage slot 102a and the embedded block 102b are arranged on the bearing box 101a. The storage slot 102a is opened on the bearing box 101a, so that a slot with the same structure as the embedded plate 101d is opened on one side of the bearing box 101a, so that the embedded plate 101d is moved into the storage slot 102a, so that the embedded plate 101d is moved out of the bearing box 101a when it is used. In this way, the inner plate 101d can be used to lift the rotor to facilitate the tile turning operation. The inner block 102b is fixedly connected to the bearing box 101a and is located at the bottom of the storage slot 102a. It is used to move the inner plate 101d to the storage slot 102a and cooperate with the inner block 102b to better position the inner plate 101d in the storage slot 102a. Since the inner block 102b is rectangular, other objects can be embedded and positioned on the inner block 102b, which will not affect the operation of the equipment in the bearing box 101a. The drop groove 102c is arranged on the storage groove 102a. The drop groove 102c is opened on the storage groove 102a. The drop groove 102c is connected to the storage groove 102a. The drop groove 102c makes a height difference between the storage groove 102a on the bearing box 101a and the moving groove 101c on the connecting plate 101b. The drop groove 102c has a gradually inclined slope, so that the inner plate 101d passes through the storage groove 102a, the drop groove 102c and the moving groove 101c. The inner plate 101d moves lower, and moves from the lower moving surface of the moving groove 101c to the storage groove 102a for positioning. The drop block 102d is arranged on the inner plate 101d, and the drop block 102d is fixedly connected to the inner plate 101d. The drop block 102d and the drop groove 102c are adapted, and the drop block 102d is a long plate with a certain curvature, so that the inner plate 101d can be raised in height for positioning during movement, and can be lowered into the moving groove 101c when in use.

[0037] Furthermore, the moving member 103 includes an adjustment groove 103a, a transverse movement groove 103b, a moving rod 103c, a lifting column 103d, an adaptation groove 103e, and a lifting plate 103f. The adjustment groove 103a and the transverse movement groove 103b are provided on the connecting plate 101b. The adjustment groove 103a is opened on both sides of the connecting plate 101b, runs through the entire connecting plate 101b, and is located on both sides of the movement groove 101c. The adjustment groove 103a has a certain length and width, facilitating the adjustment of objects thereon within a certain range. The transverse movement groove 103b is opened on the connecting plate 101b and is perpendicular to the opening direction of the adjustment groove 103a on both sides of the adjustment groove 103a. The transverse movement groove 103b can control the longitudinal movement range of the objects provided thereon on the connecting plate 101b. The moving rod 103c is provided on the transverse movement groove 103b, and the moving rod 103c is movably connected to the transverse movement groove 103b. The moving rod 103c can move a certain length on the transverse movement groove 103b. The lifting column 103d is provided on the moving rod 103c, and the lifting column 103d is movably connected to the moving rod 103c. Moreover, the lifting column 103d can move along with the longitudinal movement of the moving rod 103c. The lifting column 103d can move upward to disengage from the moving rod 103c, and the lifting column 103d is a structure after rotating a "T" shape clockwise by 90 degrees. The "|" part thereof can be embedded into the embedding groove 101e of the embedded plate 101d, so that the lifting column 103d and the embedded plate 101d can be connected. The adaptation groove 103e and the lifting plate 103f are provided on the lifting column 103d. The adaptation groove 103e is opened on the lifting column 103d and is provided in the "-" part, and is adapted to the moving column at the bottom side. The adaptation groove 103e is one that allows the moving column to enter. Conversely, moving the lifting column 103d upward can disengage it from the moving column. When not moving upward, the lifting column 103d can move horizontally arbitrarily on the moving column and can also move along with the movement of the moving column. There are two lifting columns 103d on one moving rod 103c, located on both sides of the embedded plate 101d. Thus, due to the connection relationship of the lifting columns 103d, the embedded plate 101d can be adjusted in the front, back, left, and right directions, and the embedded plate 101d can be moved to a position suitable for lifting the rotor. The lifting plate 103f is fixed on the lifting column 103d. The lifting plate 103f is a semi-circular arc structure, which is a reserved connection structure for facilitating the lifting operation of the lifting column 103d.

[0038] During the operation, during the process of lifting the rotor during the tile turning work, first, the lifting column 103d is connected to the moving column under the action of the adaptation groove 103e. As the moving column moves in the transverse movement groove 103b, the lifting column 103d is pushed, so that a part of the lifting column 103d is embedded into the embedding groove 101e of the embedded plate 101d, realizing the connection between the embedded plate 101d and the lifting column 103d.

[0039] With the connection between the lifting column 103d and the inner plate 101d, the inner plate 101d can be moved out of the storage slot 102a, and under the action of the falling block 102d and the falling slot 102c, the inner plate 101d gradually moves into the moving slot 101c. Since there is an inner plate 101d in a moving slot 101c, the inner plate 101d can move in the moving slot 101c to the position that is most conducive to lifting the rotor, so the lifting operation of the rotor can be realized more stably, and accurate lifting of any position of the rotor can be achieved, ensuring uniform force and stability of the entire rotor during the lifting process.

[0040] Example 2

[0041] Reference Figure 1 - Figure 5 , which is the second embodiment of the present invention. This embodiment is different from the first embodiment in that: this device includes a first lifting component 200, including an auxiliary member 201, a pushing member 202 and an extruding member 203. The auxiliary member 201 is arranged on the accommodating member 101, the pushing member 202 is arranged on the auxiliary member 201, and the extruding member 203 is arranged on the pushing member 202. Through the interaction among the auxiliary member 201, the pushing member 202 and the extruding member 203, as well as the action on the storage component 100, the rotor can be clamped more stably, thereby achieving a more stable lifting of the rotor.

[0042] Specifically, the auxiliary part 201 includes an operating groove 201a, a pushing groove 201b, an inclined groove 201c and an embedded groove 201d. The operating groove 201a is arranged on the embedded plate 101d. The operating groove 201a is opened on the embedded plate 101d. The operating groove 201a allows a certain space on the embedded plate 101d to be set for other objects to operate thereon, and the operating groove 201a is a "trapezoidal" structure. The operating grooves 201a are arranged on both sides of an embedded plate 101d, which is convenient for stabilizing the lifting operation of the rotor. The pushing groove 201b is arranged on the operating groove 201a, and the pushing groove 201b is connected to the operating groove 201a, so that the pushing groove 201b and the operating groove 201a can penetrate the embedded plate 101d, so that the object arranged on one side of the embedded plate 101d can extend out of the embedded plate from the operating groove 201a. 101d, the inclined groove 201c is arranged on the inner plate 101d, the inclined groove 201c is opened on the inner plate 101d, and is arranged on both sides of the operating groove 201a corresponding to the pushing groove 201b, and the inclined groove 201c gradually rises from the outer side of the inner plate 101d to the middle position, so that the object set thereon can form the effect of lifting the position in the moving rod 103c, the embedded groove 201d is arranged on the connecting plate 101b, and the embedded groove 201d is opened on the lifting column 103d, so that when the lifting column 103d moves to the storage slot 102a, the embedded groove 201d can make the lifting column 103d and the connecting plate 101b be embedded and positioned, and it is also convenient for the lifting column 103d to be fixed in position when not in use, without affecting the operation of other equipment, and also more convenient for storage.

[0043] Furthermore, the push member 202 includes a moving shaft 202a, a pushing column 202b and an inclined surface 202c. The moving shaft 202a is arranged on the inclined groove 201c, and the moving shaft 202a is movably connected to the inclined groove 201c. The moving shaft 202a moves along with the structure of the inclined groove 201c. The pushing column 202b is arranged on the moving shaft 202a, and the pushing column 202b is fixedly connected to the moving shaft 202a. When the lifting column 103d enters the groove to be embedded 101e, the pushing column 202b can be pushed to move along with the moving shaft 20 2a moves on the inclined groove 201c, and when the lifting column 103d is completely embedded in the groove 101e to be embedded, the pushing column 202b can move in the embedded plate 101d. The pushing column 202b is a polyhedral structure with a top width smaller than the bottom width. The inclined surface 202c is arranged on the pushing column 202b. The inclined surface 202c is on one side of the pushing column 202b, and the inclined surface 202c is for the convenience of connecting objects. Due to the inclined surface 202c, the top of the entire pushing column 202b is smaller than the bottom width.

[0044] Furthermore, the extrusion member 203 includes a first spring 203a, an arc plate 203b, a connecting inclined surface 203c and a contact surface 203d, the first spring 203a is arranged on the inclined surface 202c, the first spring 203a is fixedly connected to the inclined surface 202c, that is, on the push column 202b, the arc plate 203b is arranged on the first spring 203a, the arc plate 203b is fixedly connected to the first spring 203a, the arc plate 203b has a certain curvature, and is arranged on the lower side of the inner plate 101d, the arc plate 203b and the push column 202b are connected to each other due to the first spring 203a, so that a certain compression space is left between the arc plate 203b and the push column 202b, that is, they can contact rotors of different sizes, so that the lifting operation It becomes more flexible. When there is no external extrusion force, the pushing column 202b can move the arc plate 203b to the operating groove 201a of the embedded plate 101d as the moving shaft 202a is on the bottom side of the inclined groove 201c, so that the movement of other equipment will not be affected when the device is not in use. The connecting inclined surface 203c and the contact surface 203d are arranged on the arc plate 203b. The connecting inclined surface 203c is one side of the arc plate 203b. The connecting arc surface and the inclined surface 202c are arranged in parallel, so that it is convenient for the first spring 203a to connect the arc plate 203b and the pushing column 202b. The contact surface 203d is arranged on the other side of the arc plate 203b, which is convenient for contacting one side of the rotor, so that the arc plate 203b can contact the rotor to lift the rotor.

[0045] The remaining structures are the same as those of Example 1.

[0046] Operation process: by setting the inclined groove 201c, the moving shaft 202a on the inclined groove 201c and the pushing column 202b on the moving shaft 202a in the operation groove 201a on the inner panel 101d, the pushing column 202b is pushed by the lifting column 103d when entering the slot to be inserted 101e, so that the pushing column 202b moves a certain distance and height with the first spring 203a and the arc plate 203b on the first spring 203a, so that the arc plate 203b moves out of the inner panel 101d, As the lifting plate 103f on the lifting column 103d is connected and lifted, the arc plate 203b on the embedded plate 101d contacts the rotor and lifts it accordingly. Since the arc plate 203b and the push column 202b are connected by the first spring 203a, there is a certain size adaptation gap, which makes it easier to contact more rotors of different sizes for lifting operations. The clamping rotor design of the present invention has a good size accommodation capacity and can adapt to rotors of different sizes, which greatly improves the flexibility and scope of application of the lifting work.

[0047] Example 3

[0048] Reference Figure 1 - Figure 8, which is the third embodiment of the present invention. This embodiment is different from the second embodiment in that: this device includes a second lifting component 300, including a connecting member 301, a rotating member 302 and a fixed member 303, the connecting member 301 is arranged on the moving member 103, the rotating member 302 and the fixed member 303 are arranged on the connecting member 301, through the interaction among the connecting member 301, the rotating member 302 and the fixed member 303, and the action on the first lifting component 200, the entire device can realize a wrapping lifting operation under the action of the first lifting component 200, which can be performed for larger and heavier rotors.

[0049] Specifically, the connecting member 301 includes a connecting hole 301a, a bolt 301b, a connecting frame 301c and a lifting hole 301d. The connecting hole 301a is arranged on the lifting column 103d. The connecting hole 301a is arranged on the lifting column 103d. The connecting hole 301a penetrates the lifting column 103d and is used to connect other objects. The bolt 301b is arranged on the connecting hole 301a. The bolt 301b is movably connected to the connecting hole 301a. The connecting hole 301a and other objects can be stably connected through the bolt 301b. The connecting frame 301c is arranged on the bolt 301b. The connecting frame 301c is movably connected to the bolt 301b. The width of the connecting frame 301c is larger than the lifting column 103d, so the bottom of the connecting frame 301c is reserved to allow the lifting column 103d to contact, and the lifting column 103d is extended on both sides, and the extended part carries There are grooves for matching bolts 301b and connecting holes 301a, so that the lifting column 103d and the connecting frame 301c can be connected together by using bolts 301b. When the connecting frame 301c is lifted, the lifting column 103d can move accordingly. The connecting frame 301c is a structure after the "concave" character is rotated 180 degrees, and the concave side has the same curvature as the semi-circular arc surface of the inner plate 101d. In this way, when the connecting frame 301c and the inner plate 101d are connected together, a circular hole with a certain diameter is formed in the middle. The circular hole is convenient for wrapping and lifting the rotor and improving the stability of the lifting operation. The lifting hole 301d is arranged on the connecting frame 301c. The lifting hole 301d is opened on the connecting frame 301c and is located on both sides of the connecting frame 301c. In this way, the lifting hole 301d is the same as the lifting plate 103f, and is a structure for lifting and clamping the rotor.

[0050] Furthermore, the rotating member 302 includes a rotating groove 302a, a support shaft 302b and a rotating block 302c. The rotating groove 302a is arranged on the connecting frame 301c. The rotating groove 302a is opened on the connecting frame 301c and is arranged on both sides of the connecting frame 301c, so that other objects can be set on the rotating groove 302a for operation. The support shaft 302b is arranged on the rotating groove 302a. The support shaft 302b is fixedly connected to the rotating groove 302a and is arranged at the top position of the rotating groove 302a, so that more moving space is provided for the object on the support shaft 302b. The rotating block 302c is arranged on the support shaft 302b, and the rotating block 302c is rotatably connected to the support shaft 302b. The rotating block 302c has a certain length, and one side of the rotating block 302c is connected to the support shaft 302b, so that the rotating block 302c can be subjected to force to deflect at a certain angle under the action of the support shaft 302b.

[0051] Furthermore, the fixing member 303 includes a rotation groove 303a, a rotation rod 303b, a pushing surface 303c, an outer surface 303d, a hidden surface 303e and a positioning surface 303f. The rotation groove 303a is arranged on the connection frame 301c. The rotation groove 303a is opened on the connection frame 301c and is located on both sides of the connection frame 301c. The rotation groove 303a is a groove with a thread. The rotation grooves 303a are symmetrically arranged on both sides of a connection frame 301c. The rotation rod 303b is arranged on the rotation groove 303a. The rotation rod 303 b is rotatably connected to the rotating groove 303a, and the rotating rod 303b has a thread adapted to the rotating groove 303a, so that when the rotating rod 303b is rotated, it can enter the rotating groove 303a, and also enter the connecting frame 301c, so that the rotating rod 303b can gradually push the rotating block 302c when rotating, so that the pushing block gradually moves toward the inner plate 101d, so that the movement of the inner plate 101d can be fixed, so that when the rotor is lifted, the first lifting component 200 can be more firmly wrapped and enhanced;

[0052] Among them, the pushing surface 303c and the external surface 303d, the hidden surface 303e and the positioning surface 303f are arranged on the rotating block 302c, the pushing surface 303c is arranged on the rotating block 302c towards the rotating rod 303b, the pushing surface 303c is a convex surface of the rotating block 302c, which can make the rotating rod 303b move and push the contact surface, the external surface 303d is arranged on the opposite side of the pushing surface 303c, and the external surface 303d is biased towards the middle position of the connecting frame 301c, when the rotating rod 303b will not be pushed into the rotating groove 303a, the external surface 303d is in the rotating groove 302a, so that the rotating block 302c is in the rotating groove 302a, and does not affect the work of other devices, the hidden surface 303e is connected to the external surface 303d, and its hidden surface 303e has a certain curvature, This curvature is the same as the curvature of the semicircular arc surface on the connecting frame 301c, but when the rotating block 302c is in the rotating groove 302a, the hidden surface 303e is just set between the embedded plate 101d and the connecting frame 301c, and is adapted to the curvature of the two. The positioning surface 303f is connected to the hidden surface 303e and is located at the bottom side of the rotating block 302c. Its positioning surface 303f is adapted to the outer side surface of the arc plate 203b, so that when the rotating rod 303b pushes the rotating block 302c, the positioning surface 303f of the rotating block 302c can be in contact with the arc plate 203b, and when the arc plate 203b contacts the rotor, the arc plate 203b will not be displaced, which is used to fix the position of the arc plate 203b, so that it can better play a positioning role when the rotor is wrapped and lifted, thereby reinforcing the stability of the lifting.

[0053] The remaining structure is the same as that of Example 2.

[0054] Operation steps: through the setting of the first lifting component 200, the bolt 301b is used to connect the connection frame 301c and the lifting column 103d, and then the rotating rod 303b is rotated to make the rotating rod 303b enter the rotating groove 303a and move. When the rotating rod 303b moves, it will push the rotating block 302c, so that the part of the rotating block 302c with the positioning surface 303f moves and contacts the position of the arc plate 203b, so that the arc plate 203b is positioned, so that the wrapping clamping effect when lifting the rotor can be achieved, which can assist the tile turning operation. When the rotating rod 303b is moved in the reverse direction, the rotating block 302c will fall back into the rotating groove 302a and will not be exposed outside the connection frame 301c;

[0055] The entire device effectively avoids the shaking or deviation of the rotor during the lifting process; the design of the entire lifting device fully considers the safety of operation.

[0056] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. A turbine rotor tile turning auxiliary device, characterized in that: include, A storage component (100) comprises a receiving component (101), a placing component (102) and a moving component (103), wherein the placing component (102) and the moving component (103) are arranged on the receiving component (101); A first lifting component (200) comprises an auxiliary component (201), a pushing component (202) and an extruding component (203), wherein the auxiliary component (201) is arranged on the accommodating component (101), the pushing component (202) is arranged on the auxiliary component (201), and the extruding component (203) is arranged on the pushing component (202); and The second lifting component (300) comprises a connecting member (301), a rotating member (302) and a fixed member (303), wherein the connecting member (301) is arranged on the moving member (103), and the rotating member (302) and the fixed member (303) are arranged on the connecting member (301).

2. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 1, characterized in that: The accommodating member (101) comprises a bearing box (101a), a connecting plate (101b), a movable groove (101c), an inner plate (101d) and a groove to be embedded (101e), wherein the connecting plate (101b) is arranged on the bearing box (101a), the movable groove (101c) is arranged on the connecting plate (101b), the inner plate (101d) is arranged on the movable groove (101c), and the groove to be embedded (101e) is arranged on the inner plate (101d).

3. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 2 is characterized in that: The placement member (102) comprises a storage groove (102a), an embedded block (102b), a drop groove (102c) and a drop block (102d); the storage groove (102a) and the embedded block (102b) are arranged on the bearing box (101a); the drop groove (102c) is arranged on the storage groove (102a); and the drop block (102d) is arranged on the embedded plate (101d).

4. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 2 or 3, characterized in that: The movable member (103) includes an adjusting groove (103a), a transverse groove (103b), a movable rod (103c), a lifting column (103d), an adapting groove (103e) and a lifting plate (103f); the adjusting groove (103a) and the transverse groove (103b) are arranged on the connecting plate (101b); the movable rod (103c) is arranged on the transverse groove (103b); the lifting column (103d) is arranged on the movable rod (103c); the adapting groove (103e) and the lifting plate (103f) are arranged on the lifting column (103d).

5. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 4 is characterized in that: The auxiliary component (201) comprises an operating groove (201a), a pushing groove (201b), an inclined groove (201c) and an embedded groove (201d); the operating groove (201a) is arranged on the embedded plate (101d); the pushing groove (201b) is arranged on the operating groove (201a); the inclined groove (201c) is arranged on the embedded plate (101d); and the embedded groove (201d) is arranged on the connecting plate (101b).

6. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 5, characterized in that: The pushing member (202) comprises a moving shaft (202a), a pushing column (202b) and an inclined surface (202c); the moving shaft (202a) is arranged on the inclined groove (201c); the pushing column (202b) is arranged on the moving shaft (202a); and the inclined surface (202c) is arranged on the pushing column (202b).

7. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 6, characterized in that: The extrusion member (203) comprises a first spring (203a), an arc plate (203b), a connecting inclined surface (203c) and a contact surface (203d), wherein the first spring (203a) is arranged on the inclined surface (202c), the arc plate (203b) is arranged on the first spring (203a), and the connecting inclined surface (203c) and the contact surface (203d) are arranged on the arc plate (203b).

8. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 6 or 7, characterized in that: The connecting member (301) includes a connecting hole (301a), a bolt (301b), a connecting frame (301c) and a lifting hole (301d), wherein the connecting hole (301a) is arranged on the lifting column (103d), the bolt (301b) is arranged on the connecting hole (301a), the connecting frame (301c) is arranged on the bolt (301b), and the lifting hole (301d) is arranged on the connecting frame (301c).

9. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 8, characterized in that: The rotating member (302) comprises a rotating groove (302a), a supporting shaft (302b) and a rotating block (302c); the rotating groove (302a) is arranged on the connecting frame (301c); the supporting shaft (302b) is arranged on the rotating groove (302a); and the rotating block (302c) is arranged on the supporting shaft (302b).

10. The auxiliary device for turning over tiles of a steam turbine rotor according to claim 9, characterized in that: The fixing member (303) comprises a rotating groove (303a), a rotating rod (303b), a pushing surface (303c), an external surface (303d), a hidden surface (303e) and a positioning surface (303f); the rotating groove (303a) is arranged on the connecting frame (301c); the rotating rod (303b) is arranged on the rotating groove (303a); the pushing surface (303c) and the external surface (303d), the hidden surface (303e) and the positioning surface (303f) are arranged on the rotating block (302c).

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