Cold weather auxiliary wind power foundation concrete construction device

Abstract

The application relates to a wind power foundation concrete construction device for cold weather assistance, and relates to the technical field of concrete construction in cold weather. The device comprises a cold-proof framework, glass wall plates, mounting assemblies and heating assemblies. The cold-proof framework is provided with a plurality of cold-proof areas. The glass wall plates are provided in a one-to-one correspondence and are mounted on the cold-proof areas. The glass wall plates are spliced by a plurality of glass window plates. Each glass window plate is a double-layer vacuum glass structure. The mounting assemblies are provided in a one-to-one correspondence with the glass wall plates. The mounting assemblies comprise two mounting sliding rails. One end of the mounting sliding rail is hinged to the top end of the cold-proof framework. The mounting sliding rail is used for mounting and fixing the glass window plate. The heating assemblies are provided in a one-to-one correspondence and are connected to the glass wall plates. The heating assemblies are used for heating water by means of sunlight to increase the temperature around the wind power foundation. The application has the effects that the concrete construction device can be quickly built, has good heat preservation effect and can be automatically heated.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of concrete construction in cold weather, and in particular to a wind power foundation concrete construction device for assisting in cold weather. BACKGROUND

[0002] Wind power generation is an important device for converting wind energy into electric energy. In order to stably support a wind power generator, a large-size concrete foundation needs to be poured on the ground. Since the pouring temperature of the concrete should not be lower than 5 degrees, insulation measures need to be taken when pouring the concrete of the wind power foundation in cold weather.

[0003] At present, before pouring the concrete of the wind power foundation, a scaffold is first erected around the formwork of the wind power foundation, and then warm cloth is hung on the scaffold to build a warm shed. The temperature in the warm shed is raised by a stove. Although the combination of the warm shed and the stove can raise the environmental temperature of the wind power foundation concrete pouring, the erection of the scaffold is time-consuming and laborious due to the large area of the wind power foundation. The warm-keeping effect of the warm cloth is poor and air leakage is easy to occur, which leads to poor insulation effect in the warm shed. The continuous heating of the stove needs to be supervised by a special person, which increases the labor cost. Therefore, there is an urgent need for a device that can quickly build, has good insulation effect and can automatically heat to assist in pouring and construction of concrete in cold weather. SUMMARY

[0004] In order to enable the concrete construction device to be quickly built, have good insulation effect and be able to automatically heat, the application provides a wind power foundation concrete construction device for assisting in cold weather.

[0005] The application provides a wind power foundation concrete construction device for assisting in cold weather, which adopts the following technical scheme:

[0006] The wind power foundation concrete construction device for assisting in cold weather comprises a cold-proof framework, glass wallboards, a mounting assembly and a heating assembly. The cold-proof framework is covered on the wind power foundation and is provided with a plurality of cold-proof areas arranged in a ring. The glass wallboards are provided in a plurality of one-to-one correspondence and are mounted in the cold-proof areas. The glass wallboards are formed by splicing a plurality of glass window boards. Each glass window board is a double-layer vacuum glass structure.

[0007] The mounting assembly is provided in a plurality of one-to-one correspondence with the glass wallboards. The mounting assembly comprises two mounting sliding rails. One end of the mounting sliding rail is hingedly connected to the top end of the cold-proof framework, and the other end is slidingly arranged at the bottom end of the cold-proof framework.

[0008] When the two mounting sliding rails are parallel, the two mounting sliding rails are used to support all the glass window boards except the bottommost glass window board to be spliced and installed one by one.

[0009] When the two installation slide rails swing away from each other to the side edge positions of the cold-proof area, the two installation slide rails are used to fix all the glass window panels except the bottommost glass window panel, the bottommost glass window panel can be installed at the bottom ends of the two installation slide rails, the bottommost glass window panel is connected to the cold-proof framework, and the bottommost glass window panel can block the two installation slide rails from swinging towards each other.

[0010] The heating assembly is provided in plurality and detachably connected to the glass wall panel in one-to-one correspondence, is located in the cold-proof framework, and is used to heat water by means of sunlight, and the heating assembly is used to heat exchange the water vapor and the cold air to increase the temperature around the wind power foundation.

[0011] Optionally, the installation assembly further comprises a plurality of groups of installation slide blocks, each group of installation slide blocks is connected to all the glass window panels except the bottommost glass window panel in one-to-one correspondence, each group of installation slide blocks is provided with four installation slide blocks, and the four installation slide blocks are used to slide on the two installation slide rails in pairs.

[0012] Optionally, the installation assembly further comprises a plurality of groups of fixing clamping rods, each group of fixing clamping rods is connected to all the glass window panels except the bottommost glass window panel in one-to-one correspondence, each group of fixing clamping rods is provided with two or more fixing clamping rods, the two or more fixing clamping rods are located at two ends of the glass window panel respectively, and when the installation slide rail swings to the side edge position of the cold-proof area, the end portion of the fixing clamping rod can be inserted into the fixing hole formed on the installation slide rail.

[0013] Optionally, the heating assembly comprises a connecting frame, the connecting frame is used to be detachably connected to the installation slide block of one of the glass window panels, a heating water tank is connected to the connecting frame, water is contained in the heating water tank, a heating hole is formed on the side of the heating water tank close to the glass window panel, a glass plate is sealingly arranged at the heating hole, at least one circulating water pipe is connected to the heating water tank, a light condenser is arranged on the side of the heating water tank close to the glass window panel, the light condenser is rotationally connected to the connecting frame, and an adjusting motor is connected to the light condenser and is mounted on the connecting frame.

[0014] Optionally, a solar cell panel is connected to the connecting frame, the solar cell panel is electrically connected to a storage battery, the storage battery is connected to the connecting frame, the storage battery is electrically connected to a heating plate, and the heating plate is arranged in the heating water tank and located at the bottom of the heating water tank.

[0015] Optionally, the top side wall and the two side edge side walls of the cold-proof area are provided with installation grooves, sealing strips are arranged in the installation grooves, all the glass window panels except the bottommost glass window panel are inserted into the installation grooves, and the glass window panels are pressed on the sealing strips.

[0016] Optionally, the connecting frame is provided with a heat uniformizing component, the heat uniformizing component comprises a wind pump connected to the connecting frame, an air suction pipe in communication with an air inlet of the wind pump, the air suction pipe being directed towards the heating water tank at an end away from the wind pump, and two air blowing pipes in communication with an air outlet of the wind pump, the installation slide rail being of a hollow structure, the air blowing pipes being in one-to-one correspondence and connected to the inside of the installation slide rail at an end away from the wind pump, and a plurality of air blowing holes being formed in the installation slide rail and in communication with the inside, the air blowing holes being directed towards the sealing strip.

[0017] Optionally, each of the glass window panels near the top is provided with a pouring hole, and a closing plug is inserted into the pouring hole.

[0018] Optionally, each of the glass window panels is provided with a protective net, the protective net being located on a side of the glass window panel away from the inside of the cold-proof framework.

[0019] Optionally, the topmost glass window panel is connected with a mounting lifting ring, the mounting lifting ring being used for being hooked with the pulling rope, the top of the cold-proof area is provided with a fixed pulley, the fixed pulley being connected to the cold-proof framework, and the fixed pulley being used for changing the pulling direction of the pulling rope.

[0020] In summary, the present application has at least one of the following beneficial technical effects:

[0021] The cold weather auxiliary wind power foundation concrete construction device comprises a cold-proof framework, glass wall panels, a mounting assembly and a heating assembly, the glass wall panels are spliced by a plurality of glass window panels, all the glass window panels except the bottommost glass window panel can be quickly installed by means of the installation slide rail, the installation slide rail can quickly fix all the glass window panels, the bottommost glass window panel can fix all the glass window panels and fix the installation slide rail, so that the glass wall panels are convenient for quick installation in the cold-proof area; the glass window panels of the double-layer vacuum glass structure can effectively insulate the space in the cold-proof framework and are not prone to air leakage; the light collector cooperates with the heating water tank to automatically form water vapor, so that the temperature around the wind power foundation can be automatically heated, and no special person is needed to take care of, so that the concrete construction device can be quickly built, has good heat preservation effect and can be automatically heated. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 is a structural schematic diagram of an embodiment of the present application;

[0023] Figure 2 is a structural schematic diagram of a glass wall panel;

[0024] Figure 3 is a structural schematic diagram of a mounting assembly;

[0025] Figure 4 is a structural schematic diagram of a mounting piece and a fixing groove;

[0026] Figure 5 is a structural diagram of the sealing strip and the air blowing hole;

[0027] Figure 6 is a structural diagram of the heating assembly and the heat uniformizing assembly;

[0028] Figure 7 is a structural diagram of the glass plate and the heating plate;

[0029] Figure 8 is Figure 2 is an enlarged view of A in FIG. 1.

[0030] Legend of reference signs:

[0031] 1, cold protection framework; 11, cold protection area; 12, mounting groove; 13, sealing strip; 14, fixed pulley; 15, adjusting sliding groove; 16, keel; 17, bottom bar; 18, support bar; 2, glass wall plate; 21, glass window plate; 211, pouring hole; 212, closing plug; 22, protective net; 23, mounting lifting ring; 24, fixing groove; 3, mounting assembly; 31, mounting sliding rail; 311, fixing hole; 312, air blowing hole; 313, mounting piece; 32, mounting sliding block; 33, fixed clamping bar; 4, heating assembly; 41, connecting frame; 42, heating water tank; 421, heating hole; 43, glass plate; 44, circulating water pipe; 45, condenser; 46, adjusting motor; 47, solar cell panel; 48, storage battery; 49, heating plate; 5, heat uniformizing assembly; 51, air pump; 52, air suction pipe; 53, air blowing pipe. DETAILED DESCRIPTION

[0032] The following will be described in detail in combination with the accompanying drawings. Figures 1-8 The application is further described in detail.

[0033] The application discloses a cold weather auxiliary wind power foundation concrete construction device. Figures 1-3 The cold weather auxiliary wind power foundation concrete construction device comprises a cold protection framework 1, a glass wall plate 2, a mounting assembly 3 and a heating assembly 4.

[0034] The cold protection framework 1 is arranged on the wind power foundation and is provided with a plurality of cold protection areas 11 arranged in a ring shape. Figure 1 The cold protection areas 11 are in a trapezoidal shape. Figure 2 The glass wall plate 2 is provided with a plurality of glass window plates 21 which are arranged one by one and correspondingly installed at the cold protection areas 11. The glass wall plate 2 is spliced by the plurality of glass window plates 21. The plurality of glass window plates 21 are arranged one by one from the top end to the bottom end of the cold protection area 11. The adjacent two glass window plates 21 are bolted. Each glass window plate 21 is a double-layer vacuum glass structure and has excellent cold protection and heat preservation effects.

[0035] The cold protection area 11 is provided with a plurality of mounting grooves 12. The mounting groove 12 is arranged on the top end of the cold protection area 11. The mounting groove 12 is provided with a sealing strip 13. The sealing strip 13 is arranged on the top end of the mounting groove 12. The sealing strip 13 is provided with a fixed pulley 14. The fixed pulley 14 is arranged on the top end of the sealing strip 13. The fixed pulley 14 is provided with an adjusting sliding groove 15. The adjusting sliding groove 15 is arranged on the top end of the fixed pulley 14. The adjusting sliding groove 15 is provided with a keel 16. The keel 16 is arranged on the top end of the adjusting sliding groove 15. The keel 16 is provided with a bottom bar 17. The bottom bar 17 is arranged on the top end of the keel 16. The bottom bar 17 is provided with a support bar 18. The support bar 18 is arranged on the top end of the bottom bar 17. Figure 3, the installation assembly 3 is provided with multiple and corresponds to the glass wall panel 2 one by one, the installation assembly 3 includes two installation sliding rails 31, one end of the installation sliding rail 31 is hinged to the top end of the cold protection framework 1, the other end is slidably arranged in the adjusting sliding groove 15 opened at the bottom end of the cold protection framework 1, the two installation sliding rails 31 can be swung to the positions parallel to each other, and can be swung to the two side edge positions of the cold protection area 11 respectively.

[0036] Referring to Figure 3 and Figure 4 When the two installation sliding rails 31 are parallel, the two installation sliding rails 31 are used to support all the glass window panels 21 except the bottommost glass window panel 21 for installation one by one; wherein the bottom end of the installation sliding rail 31 is fixedly connected with the installation piece 313, when the installation sliding rail 31 supports the glass window panel 21, the installation piece 313 can be bolted with the cold protection framework 1 to fix the position of the installation sliding rail 31.

[0037] When the two installation sliding rails 31 are swung away from each other to the side edge positions of the cold protection area 11, the two installation sliding rails 31 are used to fix all the glass window panels 21 except the bottommost glass window panel 21, the bottommost glass window panel 21 can be installed at the bottom end of the two installation sliding rails 31, the bottommost glass window panel 21 is bolted on the cold protection framework 1, and can block the two installation sliding rails 31 from swinging towards each other, the bottommost glass window panel 21 not only can fix the positions of the two installation sliding rails 31, but also can stably support the remaining glass window panels 21, so that the installation of the glass wall panel 2 is convenient and fast; wherein after the installation sliding rail 31 is swung to the side edge position of the cold protection area 11, the installation piece 313 can be inserted into the fixing groove 24 opened on the bottommost glass window panel 21 to fix the position of the installation sliding rail 31.

[0038] Referring to Figure 3 The heating assembly 4 is provided with multiple and is detachably connected on the glass wall panel 2 one by one, the heating assembly 4 is located in the cold protection framework 1, and is used to heat water by means of sunlight, the heating assembly 4 is used to heat the temperature around the wind power foundation by heat exchange between water vapor and cold air, and the automatic heating of the heating assembly 4 does not need special care.

[0039] In use, first, the cold protection framework 1 is erected above the foundation, and then the glass wall panel 2 is installed in each cold protection area 11 synchronously; the two installation sliding rails 31 are swung to the positions parallel to each other to serve as the track for installing the glass wall panel 2; the glass window panel 21 is spliced and placed on the two installation sliding rails 31 one by one from top to bottom, the glass window panel 21 is driven to slide along the installation sliding rail 31, all the glass window panels 21 except the bottommost glass window panel 21 can be spliced one by one and abut on the top end and the two side edges of the cold protection area 11.

[0040] After the installation of the glass window panels 21 except the bottommost one, the two installation sliding rails 31 are swung to the side edge positions of the cold protection area 11, the installation sliding rails 31 fix all the glass window panels 21 except the bottommost one, and finally the bottommost glass window panel 21 is inserted into the bottom end of the cold protection area 11 and bolted to the cold protection framework 1. Since the installation pieces 313 can be inserted into the fixing grooves 24 on the glass window panels 21 at this time, the bottommost glass window panel 21 can not only support and fix all the remaining glass window panels 21, but also fix the positions of the two installation sliding rails 31, so that the entire glass wall panel 2 can be quickly installed and fixed at the cold protection area 11, and the concrete construction device can be quickly built with time and labor saving.

[0041] Since the glass window panels 21 are double-layer vacuum glass structures, the glass window panels 21 have excellent heat preservation and insulation effects, can effectively prevent heat exchange between the inside and outside of the cold protection framework 1, and can effectively preserve the internal space of the cold protection framework 1. Compared with the thermal insulation cloth, the joints of the glass wall panel 2 are more compact and less likely to leak air, thereby improving the heat preservation effect of the concrete construction device.

[0042] Under the light transmission of the glass wall panel 2, the heating assembly 4 can heat water with the aid of sunlight and make water vapor exchange with cold air, so that the temperature rise of the air around the wind power foundation can be automatically performed without special care, reducing the number of personnel for pouring concrete of the wind power foundation, thereby reducing the labor cost.

[0043] Based on the above analysis, the installation and fixation of the glass wall panel 2 can be quickly realized through the installation sliding rails 31, the internal space of the cold protection framework 1 can be effectively preserved through the glass wall panel 2, and the temperature around the wind power foundation can be automatically raised through the heating assembly 4 without special care, so that the concrete construction device can be quickly built, has good heat preservation effect, and can be automatically heated, thereby solving the defects of the prior art that the concrete construction device is time-consuming and labor-intensive to build, has poor heat preservation effect, and has high labor cost.

[0044] In the above description, the installation sliding rails 31 are used to fix the glass wall panel 2, and the installation sliding rails 31 are used to fix the glass wall panel 2. Figure 2In the embodiment, the cold protection framework 1 comprises a plurality of keels 16, a plurality of bottom bars 17 and a plurality of support bars 18. The plurality of keels 16 are arranged in a diverging manner, and adjacent two keels 16 are bolted at one end close to each other. Each keel 16 is arranged in an inclined manner. The plurality of bottom bars 17 are arranged in a one-to-one correspondence between adjacent two keels 16. The bottom bars 17 are located at the bottom ends of the keels 16, and the two ends of the bottom bars 17 are bolted to the two keels 16 close to the bottom bars 17 respectively. The plurality of support bars 18 are arranged in a one-to-one correspondence with the keels 16. The support bars 18 are arranged vertically. The top ends of the support bars 18 are bolted to the top ends of the keels 16, and the bottom ends of the support bars 18 are bolted to the template at the center position of the wind power foundation.

[0045] Specifically, referring to Figure 3 , the mounting assembly 3 further comprises a plurality of mounting sliding blocks 32. The plurality of mounting sliding blocks 32 are fixedly connected to all the glass window plates 21 except the bottommost glass window plate 21 in a one-to-one correspondence. Each set of mounting sliding blocks 32 is provided with four mounting sliding blocks 32, and the four mounting sliding blocks 32 are arranged in a sliding manner on two mounting sliding rails 31 respectively.

[0046] Among them, referring to Figure 3 and Figure 5 , in the embodiment, two mounting sliding blocks 32 are located at the top end of the glass window plate 21, and the other two mounting sliding blocks 32 are located at the bottom end of the glass window plate 21, so that the two mounting sliding rails 31 can stably guide the glass window plate 21; in the embodiment, the cross section of the mounting sliding rail 31 along the length direction is L-shaped, so that the mounting sliding rail 31 can be easily detached from the mounting sliding block 32 to swing.

[0047] Under the action of the gravity of the glass window plate 21, the two parallel mounting sliding rails 31 can stably support the four mounting sliding blocks 32. Under the guiding action of the two mounting sliding rails 31, the parallel mounting sliding rails 31 can stably support the glass window plate 21 to slide and install, so that the glass window plates 21 which are spliced one by one can be stably and quickly installed.

[0048] Specifically, referring to Figure 3 and Figure 4 , the mounting assembly 3 further comprises a plurality of fixed clamping rods 33. The plurality of fixed clamping rods 33 are fixedly connected to all the glass window plates 21 except the bottommost glass window plate 21 in a one-to-one correspondence. Each set of fixed clamping rods 33 is provided with two fixed clamping rods 33. The two fixed clamping rods 33 are located at the two ends of the glass window plate 21 respectively. When the mounting sliding rail 31 swings to the side edge position of the cold protection area 11, the end portion of the fixed clamping rod 33 can be inserted into the fixed hole 311 formed in the mounting sliding rail 31.

[0049] Among them, referring to Figure 4 , in the embodiment, the fixed clamping rod 33 is L-shaped, so that the end portion of the fixed clamping rod 33 can be inserted into the fixed hole 311.

[0050] When the installation slide rail 31 is swung to the side edge position of the cold prevention area 11, the end of the fixed clamping rod 33 can be inserted into the fixed hole 311, and the installation slide rail 31 can be fixed to the glass window plate 21 through the clamping force of the fixed clamping rod 33, so that the installation slide rail 31 can conveniently fix the glass window plate 21.

[0051] Specifically, referring to Figure 6 and Figure 7 , the heating assembly 4 comprises a connecting frame 41 which is used for being bolted on the installation slide block 32 of one of the glass window plates 21. The connecting frame 41 is fixedly connected with a heating water tank 42, the heating water tank 42 is filled with water, and a heating hole 421 is formed on the side of the heating water tank 42 close to the glass window plate 21, and a glass plate 43 is sealingly and fixedly arranged at the heating hole 421. Two symmetrical circulating water pipes 44 are communicated with the heating water tank 42, one end of each of the circulating water pipes 44 is communicated with the top end of the heating water tank 42, and the other end is communicated with the bottom end of the heating water tank 42. A condenser 45 is arranged on the side of the heating water tank 42 close to the glass window plate 21, the condenser 45 is rotationally connected with the connecting frame 41, one end of the rotation axis of the condenser 45 is connected with an adjusting motor 46, the adjusting motor 46 is fixedly connected with the connecting frame 41, and the output shaft of the adjusting motor 46 is fixedly connected with the condenser 45.

[0052] Among them, referring to Figure 6 , in this embodiment, the condenser 45 is a Fresnel lens.

[0053] The condenser 45 can converge the light rays passing through the glass window plate 21, so that the sunlight can be concentrated on the glass plate 43, and the water in the heating water tank 42 can be heated by the concentrated sunlight, and the water in the heating water tank 42 can form water vapor after being heated, the water vapor flows into the circulating water pipes 44 and exchanges heat with the cold air to increase the temperature around the wind power foundation. Since the sunlight is directly used for heating, there is no need for artificial care, which reduces the labor cost and fully utilizes clean energy; the mirror angle of the condenser 45 can be adjusted by the adjusting motor 46, so that the condenser 45 can heat the water efficiently.

[0054] Further, referring to Figure 6 and Figure 7 , in order to improve the stability of the water heating in the heating water tank 42, a solar cell panel 47 is fixedly connected with the connecting frame 41, the solar cell panel 47 is electrically connected with a storage battery 48, the storage battery 48 is fixedly connected with the connecting frame 41, the storage battery 48 is electrically connected with a heating plate 49, and the heating plate 49 is fixedly arranged in the heating water tank 42 and located at the bottom of the heating water tank 42.

[0055] The solar panel 47 can charge the battery 48, and the battery 48 can supply power to the heating plate 49, so that the heating plate 49 can heat the water in the heating water tank 42. In the insufficient light environment of cloudy days or nights, the heating plate 49 can make up for the insufficient heating capacity of the light collector 45, so that the heating of the water in the heating water tank 42 is stable and reliable.

[0056] With reference to Figure 3 and Figure 5 , in order to improve the sealing between the glass window plate 21 and the cold-proof framework 1, the top side wall and the two side edge side walls of the cold-proof area 11 are provided with mounting grooves 12, and sealing strips 13 are fixedly arranged in the mounting grooves 12. All glass window plates 21 except the bottommost glass window plate 21 are inserted into the mounting grooves 12, and the glass window plates 21 are pressed on the sealing strips 13.

[0057] By arranging the sealing strips 13 between the glass window plate 21 and the cold-proof framework 1, the cold wind outside the cold-proof framework 1 is not easy to blow into the cold-proof framework 1, and the heat preservation effect of the glass wall plate 2 is improved.

[0058] With reference to Figure 5 and Figure 6 , in order to prevent the sealing strip 13 from hardening and becoming brittle in cold weather and reducing the sealing effect, the connecting frame 41 is provided with a heat uniformizing assembly 5. The heat uniformizing assembly 5 includes a wind pump 51 fixedly connected to the connecting frame 41. The air inlet of the wind pump 51 is communicated with a suction pipe 52, one end of the suction pipe 52 away from the wind pump 51 is flared, and faces the heating water tank 42. The air outlet of the wind pump 51 is communicated with two blowing pipes 53. The inside of the mounting slide rail 31 is hollow. One end of the blowing pipe 53 away from the wind pump 51 is communicated to the inside of the mounting slide rail 31 one by one. The mounting slide rail 31 is provided with a plurality of blowing holes 312 communicated with the inside. The blowing holes 312 face the sealing strip 13.

[0059] The wind pump 51 can suck the hot air around the heating water tank 42 into the blowing pipe 53. The blowing pipe 53 can guide the hot air into the mounting slide rail 31. Since the mounting slide rail 31 can be located close to the sealing strip 13 after the glass wall plate 2 is installed, the hot air in the mounting slide rail 31 can be directly blown to the sealing strip 13 from the blowing holes 312, so as to increase the temperature of the sealing strip 13, so that the sealing strip 13 is not easy to harden and become brittle in cold weather and reduce the sealing effect. The hot air blown to the sealing strip 13 can dissipate into the internal space of the cold-proof framework 1 after heat exchange with the sealing strip 13, which helps to increase the overall temperature of the inside of the cold-proof framework 1, so that the temperature rise in the cold-proof framework 1 is easy to be uniform. Under the action of the air suction and blowing of the wind pump 51, the speed of the cold air in the cold-proof framework 1 flowing to the heating water tank 42 can be accelerated, so that the temperature in the cold-proof framework 1 can be easily and quickly increased.

[0060] With reference to Figure 2 And Figure 8 In order to facilitate the pouring of concrete, each glass wallboard 2 is provided with a pouring hole 211 near one of the glass window boards 21 at the top, and a closure plug 212 is inserted into the pouring hole 211. When pouring, the closure plug 212 is opened, and the pipeline for pouring concrete can be extended into the cold frame 1 from the pouring hole 211, thereby facilitating the pouring of concrete.

[0061] With reference to Figure 2 In order to improve the protection of the glass window board 21, a protective net 22 is bolted to each glass window board 21, and the protective net 22 is located on the side of the glass window board 21 away from the interior of the cold frame 1. The protective net 22 can block foreign matter such as stones from impacting on the glass window board 21, thereby improving the protection of the glass window board 21 and making it less likely to be damaged. In this embodiment, the protective net 22 on the glass window board 21 where the pouring hole 211 is located has a notch reserved for the pouring hole 211.

[0062] With reference to Figure 2 And Figure 8 In order to facilitate the sliding of the glass window board 21, a mounting lifting ring 23 is fixedly connected to the topmost glass window board 21, and the mounting lifting ring 23 is used to hook the pulling rope. The top end of the cold area 11 is provided with a fixed pulley 14 connected to the cold frame 1, and the fixed pulley 14 is used to change the pulling direction of the pulling rope.

[0063] The driving device for driving the glass window board 21 to slide can be a winch, a traction machine or a crane. The pulling rope on the driving device can be hooked onto the mounting lifting ring 23 and can be hooked onto the mounting lifting ring 23. The driving device provides pulling force, so that the assembled glass window board 21 can be easily installed on the two mounting sliding rails 31.

[0064] The implementation principle of the cold weather auxiliary wind power foundation concrete construction device provided in the embodiments of the present application is as follows: in use, the cold prevention framework 1 is erected on the wind power foundation, the two installation slide rails 31 are swung to be parallel to each other, all the glass window plates 21 except the bottommost glass window plate 21 are spliced and installed by taking the installation slide rails 31 as supports, the two installation slide rails 31 are swung to the side edges of the cold prevention area 11, the end portions of the fixed clamping rods 33 can be inserted into the fixed holes 311, the installation slide rails 31 can fix the glass window plates 21, the bottommost glass window plate 21 is installed at the bottom of the cold prevention area 11, the bottommost glass window plate 21 supports and fixes all the other glass window plates 21, and the two installation slide rails 31 are fixed, so that the glass wall plate 2 can be quickly installed at the cold prevention area 11, the glass window plate 21 with a double-layer vacuum glass structure can have excellent heat preservation and insulation capacity, the heat preservation effect inside the cold prevention framework 1 is improved, the light collector 45 can automatically heat the water in the water heating tank 42 by means of sunlight, the temperature around the wind power foundation can be automatically increased, and no special person needs to be on duty, so that the concrete construction device can be quickly erected, has good heat preservation effect, and can be automatically heated.

[0065] The above are preferred embodiments of the present application, and do not limit the protection scope of the present application, so that: all equivalent changes made according to the structure, shape, principle of the present application should be covered in the protection scope of the present application.

Claims

1. A wind turbine foundation concrete construction device for cold weather assistance, characterized in that: It includes a cold-proof frame (1), glass wall panels (2), installation components (3) and heating components (4). The cold-proof frame (1) is installed on the wind power foundation and has multiple cold-proof areas (11) arranged around it. There are multiple glass wall panels (2), which are installed in the cold-proof areas (11) in a corresponding manner. The glass wall panels (2) are spliced ​​together from multiple glass window panels (21), and each glass window panel (21) is a double-layer vacuum glass structure. There are multiple installation components (3), which correspond one-to-one with the glass wall panel (2). The installation component (3) includes two installation slide rails (31). One end of the installation slide rail (31) is hinged to the top of the cold-proof frame (1), and the other end is slidably set at the bottom of the cold-proof frame (1). When the two mounting rails (31) are parallel, the two mounting rails (31) are used to support all the glass window panels (21) except the bottom glass window panel (21) for splicing and installation one by one; When the two mounting rails (31) swing away from each other to the side of the cold-proof area (11), the two mounting rails (31) are used to fix all the glass windows (21) except the bottom glass window panel (21). The bottom glass window panel (21) can be installed at the bottom of the two mounting rails (31). The bottom glass window panel (21) is connected to the cold-proof frame (1) and can prevent the two mounting rails (31) from swinging close to each other. Multiple heating components (4) are provided and are detachably connected to the glass wall panel (2) in a corresponding manner. The heating components (4) are located inside the cold-proof frame (1) and are used to heat water with the help of sunlight. The heating components (4) are used to increase the temperature around the wind power foundation by exchanging heat between water vapor and cold air.

2. The wind power foundation concrete construction device for cold weather assistance according to claim 1, characterized in that: The mounting assembly (3) also includes multiple sets of mounting sliders (32), which are connected one-to-one to all the glass windows (21) except for the bottom glass window panel (21). Each set of mounting sliders (32) has four sliders, and each slider is used to slide on two mounting rails (31).

3. The wind power foundation concrete construction device for cold weather assistance according to claim 1, characterized in that: The installation assembly (3) also includes multiple sets of fixing rods (33), which are connected one-to-one to all the glass windows (21) except for the bottom glass window panel (21). Each set of fixing rods (33) has two or more, and the two or more fixing rods (33) are located at both ends of the glass window panel (21). When the installation slide rail (31) swings to the side of the cold protection area (11), the end of the fixing rod (33) can be inserted into the fixing hole (311) opened on the installation slide rail (31).

4. The wind power foundation concrete construction device for cold weather assistance according to claim 2, characterized in that: The heating component (4) includes a connecting frame (41) for detachably connecting to the mounting slider (32) of one of the glass window panels (21). A heating water tank (42) is connected to the connecting frame (41). The heating water tank (42) is filled with water. A heating hole (421) is provided on the side of the heating water tank (42) near the glass window panel (21). A glass plate (43) is sealed at the heating hole (421). At least one circulating water pipe (44) is connected to the heating water tank (42). A condenser lens (45) is provided on the side of the heating water tank (42) near the glass window panel (21). The condenser lens (45) is rotatably connected to the connecting frame (41) and connected to an adjusting motor (46). The adjusting motor (46) is installed on the connecting frame (41).

5. The wind power foundation concrete construction device for cold weather assistance according to claim 4, characterized in that: A solar panel (47) is connected to the connecting frame (41). The solar panel (47) is electrically connected to a storage battery (48). The storage battery (48) is connected to the connecting frame (41). The storage battery (48) is electrically connected to a heating plate (49). The heating plate (49) is installed inside the heating water tank (42) and is located at the bottom of the heating water tank (42).

6. The wind power foundation concrete construction device for cold weather assistance according to claim 4, characterized in that: The top sidewall and two sidewalls of the cold-proof area (11) are provided with mounting grooves (12), and sealing strips (13) are provided in the mounting grooves (12). Except for the bottom glass window panel (21), all the other glass window panels (21) are inserted into the mounting grooves (12), and the glass window panels (21) are pressed against the sealing strips (13).

7. The wind power foundation concrete construction device for cold weather assistance according to claim 6, characterized in that: The connecting frame (41) is provided with a heat equalization component (5), which includes a wind pump (51). The wind pump (51) is connected to the connecting frame (41). The air inlet of the wind pump (51) is connected to a suction pipe (52). The end of the suction pipe (52) away from the wind pump (51) faces the heating water tank (42). The air outlet of the wind pump (51) is connected to two blowing pipes (53). The mounting slide rail (31) has a hollow structure inside. The end of the blowing pipe (53) away from the wind pump (51) is connected to the interior of the mounting slide rail (31) one by one. The mounting slide rail (31) has multiple blowing holes (312) that communicate with the interior. The blowing holes (312) face the sealing strip (13).

8. The wind power foundation concrete construction device for cold weather assistance according to claim 1, characterized in that: Each of the glass wall panels (2) has a casting hole (211) on one of the glass window panels (21) near the top, and a sealing plug (212) is inserted into the casting hole (211).

9. The wind power foundation concrete construction device for cold weather assistance according to claim 1, characterized in that: Each of the glass window panels (21) is provided with a protective net (22), which is located on the side of the glass window panel (21) away from the interior of the cold-proof frame (1).

10. A cold-weather auxiliary wind power foundation concrete construction device according to claim 1, characterized in that: A mounting ring (23) is connected to the glass window panel (21) at the top. The mounting ring (23) is used to hook with the pull rope. A fixed pulley (14) is provided at the top of the cold protection area (11). The fixed pulley (14) is connected to the cold protection frame (1). The fixed pulley (14) is used to change the traction direction of the pull rope.

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