Backfill-free curtain wall embedded part tool and construction method

Abstract

The invention discloses a backfill-free curtain wall embedded part tool and a construction method, and relates to the technical field of curtain wall system embedded part tools, an embedded part comprises an anchoring body and two connecting plates which are perpendicular to the anchoring body, and the plate surfaces of the two connecting plates are oppositely arranged in parallel; a heat preservation block filling area is defined between the two connecting plates; comprising a hammering bottom plate, and the plate face of one side of the hammering bottom plate is a hammering face for bearing hammering of a hammer body; the slotting and punching part comprises a first cylindrical cutting die, the first cylindrical cutting die is perpendicularly fixed to the plate face of the other side of the hammering bottom plate, and the end, away from the hammering bottom plate, of the first cylindrical cutting die is a first blanking end; and an inner cavity of the first cylindrical cutting die is configured to store an insulation board blanking block used for adaptively backfilling the insulation block filling area when the first cylindrical cutting die punches and penetrates through the insulation board. Accurate pre-grooving treatment can be carried out on the insulation board before embedded part installation construction, and the convenience and the installation precision of embedded part installation are improved.

Description

Technical Field

[0001] The invention relates to the technical field of curtain wall system embedded component tooling, and in particular to a backfill-free curtain wall embedded component tooling and a construction method. Background Art

[0002] In curtain wall construction, the installation of embedded parts (such as thermal break connectors) is crucial, which directly affects the thermal insulation performance of the curtain wall system and the stability of the overall structure. However, in the traditional construction process, embedding the thermal break connectors into the insulation board often faces challenges. In particular, the existing method requires grooving and digging holes in the insulation board where the curtain wall is installed at the construction site to embed the embedded parts, which not only increases the complexity of construction, but also makes it difficult to ensure the dimensional accuracy of the grooving and digging holes, thereby affecting the installation accuracy of the connectors; and after the insulation board is grooved and dug, the internal space of the thermal break connector and the backfilling of insulation materials and the sealing of the gaps between the thermal break connector and its installation hole are low in construction efficiency, which affects the overall construction progress and increases construction costs.

[0003] Therefore, how to provide a backfill-free curtain wall embedded parts tooling and construction method, which can accurately pre-groove the insulation board before the embedded parts are installed, improve the convenience and installation accuracy of the embedded parts, and reduce the construction difficulty of backfilling the insulation material, thereby reducing the construction cost is a problem that technical personnel in this field urgently need to solve. Summary of the invention

[0004] In view of this, the present invention proposes a backfill-free curtain wall embedded parts tooling and construction method, aiming to solve the technical problems of complex installation and construction of traditional insulation board embedded parts, time-consuming, labor-intensive and high cost.

[0005] In order to achieve the above object, the present invention adopts the following technical solution:

[0006] The first aspect of the present invention provides a backfill-free curtain wall embedded component tooling, the embedded component comprising an anchor body, two connecting plates vertically connected to one side of the anchor body and arranged with plate surfaces relatively parallel; an insulation block filling area is defined between the two connecting plates; and the embedded component comprises:

[0007] A hammer bottom plate, wherein one side of the hammer bottom plate is a hammer surface for receiving the hammering of the hammer body;

[0008] A slotting and punching portion, wherein the slotting and punching portion comprises a first cylindrical cutting die, wherein the first cylindrical cutting die is vertically fixed to the plate surface on the other side of the hammering base plate, and the end thereof away from the hammering base plate is a punching end 1, wherein the punching end 1 is used for punching a preset depth on the plate surface of the insulation board to form an annular pre-positioning groove 1 or punching through the insulation board to form an embedded installation through hole adapted to pass through the two connecting plates; the inner cavity of the first cylindrical cutting die is configured to store the insulation board punching block used to adapt to backfill the insulation block filling area when the first cylindrical cutting die punches through the insulation board.

[0009] The embedded part tooling of the present invention has two usage modes. The first usage mode is: by hammering the hammer surface of the bottom plate with a hammer, the blanking end of the first cylindrical die is punched to a certain depth in the insulation board to form an annular pre-positioning groove 1 on the surface of the insulation board, and the function of the annular pre-positioning groove 1 is to provide a guide basis for opening an embedded part installation through hole on the insulation board; then, an electric saw can be used to penetrate the insulation board and cut along the annular pre-positioning groove 1 to dig out the embedded part installation through hole on the insulation board, and the insulation board cut block cut along the annular pre-positioning groove 1 can be adapted to be embedded in the insulation block filling area in the embedded part, and embedded into the embedded part installation through hole together with the embedded part, eliminating the process of selecting materials for the internal cavity of the embedded part and making a separate backfill insulation block in the later stage of installation, reducing the construction difficulty, optimizing the embedded part installation construction process, saving materials, and reducing construction costs; the first usage mode is more suitable for thicker or harder insulation boards. The second method of use is: by hammering the hammer surface of the bottom plate with a hammer, the blanking end of the first cylindrical die is punched through the insulation board to directly construct an embedded part installation through hole on the insulation board; and the blanked insulation board blanking block is directly received by the inner cavity of the first cylindrical die, and by designing the inner cavity of the first cylindrical die to have the same shape and size as the insulation block filling area, the insulation board blanking block in the inner cavity of the first cylindrical die is just adapted to the backfill insulation block filling area, thereby improving the backfill compactness and sealing and insulation effect; the second method of use is more suitable for insulation boards with thin thickness or easy to punch and process, and can greatly improve construction efficiency. The embedded part tooling of the present invention can greatly improve the installation, construction efficiency and accuracy of the embedded parts of the insulation board that does not require backfilling, can significantly improve the overall performance of the curtain wall system, and provide a more reliable and efficient solution for construction.

[0010] As a further improvement of the above technical solution, the end of the anchor body in the length direction extends to the outer sides of the two connecting plates in the opposite direction to form an extended anchor end;

[0011] The slotting and punching part further includes a second cylindrical cutting die; the second cylindrical cutting die is arranged corresponding to the outer peripheral side of the first cylindrical cutting die and is arranged perpendicular to the hammering bottom plate, and the end thereof away from the hammering bottom plate is a second punching end;

[0012] The second punching end is used for punching a preset depth on the surface of the insulation board corresponding to the outer peripheral side of the embedded part installation through hole to form an annular pre-positioning groove No. 2, and defining a slotted area for opening an anchor body embedding groove for embedding the anchor body on the insulation board corresponding to the inner ring area of ​​the annular pre-positioning groove No. 2; or, the second punching end is used for punching through the insulation board on the surface of the insulation board corresponding to the outer peripheral side of the embedded part installation through hole to form a penetration hole suitable for penetrating the anchor body, and the inner cavity of the second cylindrical cutting die is configured to store the insulation board punching strip for backfilling the penetration hole when the second cylindrical cutting die punches through the insulation board.

[0013] The beneficial effects of the above technical solution are: the second cylindrical die is arranged on the outer peripheral side of the first cylindrical die, and can punch out an annular pre-positioning groove II on the peripheral side of the embedded part installation through hole, providing a positioning basis for further opening an anchor body embedding groove on the surface of the insulation board; during construction, a groove is made in the grooved area defined by the annular punching mark, that is, the wall material in the inner area of ​​the annular pre-positioning groove II is removed by using a groove tool, so that a more accurate anchor body embedding groove can be obtained. Alternatively, during construction, the first cylindrical die and the second cylindrical die can be used to punch through the insulation board together, and the first cylindrical die and the second cylindrical die cooperate to open a through hole on the insulation board for directly inserting the anchor body, that is, when installing the embedded part, one end of the anchor body is first inserted into the through hole, and then the connecting plate is inserted; the insulation board punching strip stored in the inner cavity of the second cylindrical die is taken out, and the outer sides of the insulation board punching strip corresponding to the relative directions of the two connecting plates are inserted back into the through hole.

[0014] As a further improvement of the above technical solution, the second punching end is located between the first punching end and the other side of the hammering bottom plate; there is a preset distance between the second punching end and the first punching end.

[0015] The beneficial effect of the above technical solution is: when in use, for thicker or harder insulation boards, first use the first cylindrical cutting die to punch out an annular pre-positioning groove one on the insulation board, and then use an electric saw to cut out the embedded part installation hole; then the first cylindrical cutting die is embedded in the embedded part installation hole and the second cylindrical cutting die is used to punch out an annular pre-positioning groove two on the insulation board, and then use a grooving tool to process the anchor body embedding groove; it can ensure that the processed anchor body embedding groove has a precise positional relationship with respect to the embedded part installation hole, thereby improving the installation accuracy of the embedded part, avoiding the appearance of a large gap between the embedded part and the insulation board, and improving the thermal insulation performance of the curtain wall system. For insulation boards that are thin or easy to punch, first use the first cylindrical die to directly punch out the embedded part installation hole on the insulation board. At the same time, the first cylindrical die does not need to be pulled out, and the second cylindrical die is used to punch out the annular pre-positioning groove 2 on the insulation board. Then the tooling is taken out to ensure the precise position relationship of the annular pre-positioning groove 2 relative to the embedded part installation hole, thereby improving the installation accuracy of the embedded part.

[0016] As a further improvement of the above technical solution, a reinforcing anchor plate is fixed to the top end surface and / or the bottom end surface of the connecting plate close to the anchor body;

[0017] The slotting and punching part also includes a plate-shaped slotting knife film; the plate-shaped slotting knife film is vertically fixed to the plate surface on the other side of the hammering bottom plate, and one end thereof away from the hammering bottom plate is a punching end three for punching a preset depth on the plate surface of the insulation board to form a positioning groove for fitting and penetrating the reinforcing anchor plate;

[0018] The third blanking end corresponds to the first blanking end; or, the third blanking end corresponds between the second blanking end and the first blanking end.

[0019] The beneficial effect of the above technical solution is: in order to make the tooling adapt to the embedded parts with reinforced anchor plates, a plate-shaped slotting knife film is added to the surface of the hammered bottom plate. During the process of punching the first cylindrical knife die into the insulation board, the plate-shaped slotting knife film can be used to punch out a positioning groove suitable for the reinforcing anchor plate.

[0020] As a further improvement of the above technical solution, a handle is installed on the hammering surface of the hammering base plate.

[0021] The beneficial effects of the above technical solution are: the handle is convenient for holding and positioning the tooling, and the tooling can be easily pulled out by the handle after punching.

[0022] As a further improvement of the above technical solution, an observation port is provided in the middle of the hammering bottom plate.

[0023] The beneficial effect of the above technical solution is that the function of the observation port is to facilitate the operator to directly observe the situation of the first cylindrical cutting die being embedded in the insulation board during the process of punching processing using the tooling.

[0024] A second aspect of the present invention provides a method for constructing backfill-free thermal insulation board embedded parts of a curtain wall system, including the backfill-free curtain wall embedded parts tooling, comprising the following steps:

[0025] Step 1: Prepare the embedded parts and installation tools to be installed. The installation tools include the embedded parts tooling for the insulation board without backfilling, hammering tools and cutting saws;

[0026] Step 2: Press the blanking end of the first cylindrical die of the backfill-free insulation board embedded tooling against the position on the insulation board surface where the hole is to be opened, and use a hammering tool to hit the hammering surface of the hammering bottom plate, so that the blanking end of the first cylindrical die is pressed into the insulation board to a certain depth, so as to form an annular pre-positioning groove on the insulation board surface;

[0027] Step 3: insert the saw blade of the cutting saw into the opening positioning contour groove and penetrate the insulation board, and under the guidance of the opening positioning contour groove, cut along the opening positioning contour groove to process the embedded part installation through hole at the position of the insulation board to be opened, and take out the cut insulation board cutting block;

[0028] Step 4: Fit the cut insulation board blocks as insulation blocks into the insulation block filling area in the embedded part;

[0029] Step 5: Insert the connection plate of the embedded part filled with the insulation block into the embedded part installation through hole, and the installation is completed.

[0030] As a further improvement of the above technical solution, the slotting and punching part further includes one or more second cylindrical cutting dies; one or more second cylindrical cutting dies are arranged corresponding to the outer peripheral side of the first cylindrical cutting dies and are arranged perpendicular to the hammering bottom plate, and the end thereof away from the hammering bottom plate is the second punching end;

[0031] In the step 1, the installation tool also includes a slotting shovel;

[0032] In the step 2, the second punching end of the second cylindrical die is punched to a preset depth on the surface of the insulation board corresponding to the peripheral side of the embedded part installation through hole to form a second annular pre-positioning groove; the insulation board material in the inner area of ​​the second annular pre-positioning groove is removed by a slotting shovel to form an anchor body embedding groove for embedding the anchor body;

[0033] In the step five, the connecting plate of the embedded part filled with the heat-insulating block is inserted into the embedded part installation through hole, and the anchor body is embedded in the anchor body embedding groove.

[0034] A third aspect of the present invention provides a backfill-free insulation board embedded component construction method for a curtain wall system, including the backfill-free curtain wall embedded component tooling, comprising the following steps:

[0035] Step 1: Prepare the embedded parts and installation tools to be installed. The installation tools include the embedded parts tooling for the non-backfill insulation board and hammering tools;

[0036] Step 2: Press the blanking end of the first cylindrical die of the backfill-free insulation board embedded part tooling against the position on the insulation board surface where the hole is to be opened, and use a hammering tool to hit the hammering surface of the hammering bottom plate, so that the blanking end of the first cylindrical die punches through the insulation board to form an embedded part installation through hole on the insulation board surface, and the cut insulation board blanking block remains in the inner cavity of the first cylindrical die;

[0037] Step 3: Take out the cut insulation board blanking block from the inner cavity of the first cylindrical die, and fit it into the insulation block filling area in the embedded part as an insulation block;

[0038] Step 4: Insert the connection plate of the embedded part filled with the insulation block into the embedded part installation through hole, and the installation is completed.

[0039] As a further improvement of the above technical solution, the slotting and punching part further includes one or more second cylindrical cutting dies; one or more second cylindrical cutting dies are arranged corresponding to the outer peripheral side of the first cylindrical cutting dies and are arranged perpendicular to the hammering bottom plate, and the end thereof away from the hammering bottom plate is the second punching end;

[0040] In the step 1, the installation tool also includes a slotting shovel;

[0041] In the second step, when the first cylindrical cutting die punches through the insulation board, the second punching end of the second cylindrical cutting die punches a preset depth on the circumference of the embedded part installation through hole on the insulation board surface to form a second annular pre-positioning groove; the insulation board material in the inner area of ​​the second annular pre-positioning groove is removed by a slotting shovel to form an anchor body embedding groove for embedding the anchor body;

[0042] In the step 4, the connecting plate of the embedded part filled with the heat-insulating block is inserted into the embedded part installation through hole, and the anchor body is embedded in the anchor body embedding groove.

[0043] It can be seen from the above technical solutions that, compared with the prior art, the present invention discloses a backfill-free curtain wall embedded parts tooling and construction method, which has the following advantages and beneficial effects:

[0044] 1. Pre-grooving design: By using this tooling, the present invention can complete precise grooving processing before the insulation panels constituting the curtain wall system enter the construction site, ensuring that the thermal break connectors can be installed quickly and accurately.

[0045] 2. Improve construction efficiency: The pre-grooved insulation board of the present invention greatly simplifies the construction process, reduces the difficulty of on-site operation, and avoids errors caused by manual grooving.

[0046] 3. Improve installation accuracy: The present invention ensures the size and position accuracy of the slots by using this tooling, ensuring the perfect fit between the thermal break connector and the insulation board, thereby improving the insulation performance of the curtain wall system.

[0047] 4. Portability and ease of use: The box-type tooling design of the present invention is easier to carry and operate, and is suitable for various construction environments, especially installation operations in high altitudes and narrow spaces.

[0048] 5. The introduction of the embedded tooling of the present invention not only improves the construction efficiency, but also significantly improves the overall performance of the curtain wall system, providing a more reliable and efficient solution for the construction unit. BRIEF DESCRIPTION OF THE DRAWINGS

[0049] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on the provided drawings without paying creative work.

[0050] Figure 1 A three-dimensional schematic diagram of the overall structure of a backfill-free curtain wall embedded parts tooling of the present invention;

[0051] Figure 2A three-dimensional schematic diagram of the overall structure of the embedded tooling for a curtain wall without backfilling according to the present invention from another perspective;

[0052] Figure 3 A schematic diagram of the structure of a first cylindrical cutting die, a second cylindrical cutting die and a plate-shaped slotting cutting die of a backfill-free curtain wall embedded part tooling of the present invention;

[0053] Figure 4 A schematic diagram of another structural form of a backfill-free curtain wall embedded parts tooling of the present invention;

[0054] Figure 5 A three-dimensional schematic diagram of another structural form and another viewing angle of a backfill-free curtain wall embedded component tooling of the present invention;

[0055] Figure 6 A schematic diagram of another structural form of a backfill-free curtain wall embedded parts tooling of the present invention from another viewing angle;

[0056] Figure 7 A schematic diagram of the hole and groove structure formed on the insulation board after the backfill-free curtain wall embedded parts tooling is used;

[0057] Figure 8 A schematic side view of an embedded component structure applicable to a backfill-free curtain wall embedded component tooling of the present invention;

[0058] Fig. 9 A schematic top view of an embedded component structure applicable to a backfill-free curtain wall embedded component tooling of the present invention;

[0059] Fig.10 A schematic diagram of a state in which an embedded part applicable to a backfill-free curtain wall embedded part tooling of the present invention is filled with a thermal insulation block;

[0060] Fig.11 A schematic front view of an embedded component structure applicable to a backfill-free curtain wall embedded component tooling of the present invention;

[0061] Fig.12 A three-dimensional schematic diagram of a third structural form of a backfill-free curtain wall embedded parts tooling of the present invention;

[0062] Fig.13 A three-dimensional schematic diagram from another perspective of the third structural form of a backfill-free curtain wall embedded tooling of the present invention;

[0063] Fig.14 A schematic diagram of another viewing angle of the third structural form of a backfill-free curtain wall embedded tooling of the present invention;

[0064] Fig.15 A three-dimensional schematic diagram of a fourth structural form of a backfill-free curtain wall embedded parts tooling of the present invention;

[0065] Fig.16 A three-dimensional schematic diagram from another perspective of the fourth structural form of a backfill-free curtain wall embedded tooling of the present invention;

[0066] Fig.17 A schematic diagram of another viewing angle of the fourth structural form of a backfill-free curtain wall embedded component tooling of the present invention;

[0067] In the figure: 1. hammering bottom plate; 11. hammering surface; 12. handle; 13. observation port; 2. slotting and punching part; 21. first cylindrical cutting die; 22. second cylindrical cutting die; 23. plate-shaped slotting knife film; 3. embedded parts; 31. anchor body; 311. extended anchor end; 32. connecting plate; 321. insulation block filling area; 33. reinforced anchor plate; 4. insulation block; 5. insulation board; 51. embedded part installation through hole; 52. annular pre-positioning groove one; 53. insulation board punching block; 54. annular pre-positioning groove two; 55. positioning groove; 56. slot for removing insulation board material. DETAILED DESCRIPTION

[0068] Embodiments of the present invention are described in detail below, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and should not be construed as limiting the present invention.

[0069] In the description of the present invention, it is necessary to understand that the terms "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating the orientation or position relationship are based on the orientation or position relationship shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the present invention.

[0070] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, the meaning of "plurality" is two or more, unless otherwise clearly and specifically defined.

[0071] In the present invention, unless otherwise clearly specified and limited, the terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0072] Embedded part 3 is installed on the insulation board connected to the building body and is used to hang the curtain wall; Figures 9 to 11 As shown, the embedded part 3 includes an anchor body 31, two connecting plates 32 which are vertically fixedly connected to one side of the anchor body 31 and whose plate surfaces are arranged relatively parallel; a heat preservation block filling area 321 is defined between the two connecting plates 32; Figures 1 to 6 As shown, a backfill-free curtain wall embedded component tooling includes a hammering base plate 1 and a slotting and punching part 2.

[0073] One side surface of the hammer bottom plate 1 is a hammer surface 11 for receiving the hammering of the hammer body;

[0074] The slotting and punching part 2 includes a first cylindrical cutting die 21, which is vertically fixed on the other side of the hammering base plate 1, and its end away from the hammering base plate 1 is a punching end 1, which is used to punch a preset depth on the insulation board 5 to form an annular pre-positioning groove 52 or punch through the insulation board 5 to form an embedded part installation through hole 51 adapted to pass through two connecting plates 32; the inner cavity of the first cylindrical cutting die 21 is configured to store an insulation board punching block 53 used to adapt to backfill the insulation block filling area 321 when the first cylindrical cutting die 21 punches through the insulation board 5.

[0075] The embedded parts tooling of this embodiment has two usage modes. The first usage is: by hammering the hammering surface 11 of the bottom plate 1 with a hammer, the blanking end of the first cylindrical knife die 21 is punched to a certain depth in the insulation board 5 to form an annular pre-positioning groove 52 on the surface of the insulation board 5. The function of the annular pre-positioning groove 52 is to provide a guiding basis for opening the embedded part installation through hole 51 on the insulation board 5; then, an electric saw can be used to penetrate the insulation board 5 and cut along the annular pre-positioning groove 52 to dig out the embedded part installation through hole 51 on the insulation board 5. The insulation board cut block cut along the annular pre-positioning groove 52 can be adapted to be embedded in the insulation block filling area 321 in the embedded part 3, and embedded in the embedded part installation through hole 51 together with the embedded part 3, eliminating the process of selecting materials for the internal cavity of the embedded part and making a separate backfill insulation block in the later stage of installation, reducing the construction difficulty, optimizing the embedded part installation construction process, saving materials, and reducing construction costs; the first usage is more suitable for thicker or harder insulation boards. The second use method is: by hammering the hammer surface 11 of the bottom plate 1 with a hammer, the blanking end of the first cylindrical die 21 is punched through the insulation board 5 to directly construct an embedded part installation through hole 51 on the insulation board 5; and the blanked insulation board blanking block 53 is directly received by the inner cavity of the first cylindrical die 21, and by designing the inner cavity of the first cylindrical die 21 to have the same shape and size as the insulation block filling area 321, the insulation board blanking block 53 in the inner cavity of the first cylindrical die 21 is just adapted to the backfill insulation block filling area 321, thereby improving the backfill compactness and sealing and insulation effect; the second use method is more suitable for insulation boards with thin thickness or easy to punch and process, and can greatly improve construction efficiency. The backfill-free insulation board embedded part tooling of the present invention can greatly improve the installation, construction efficiency and accuracy of the backfill-free insulation board embedded parts, and can significantly improve the overall performance of the curtain wall system, providing a more reliable and efficient solution for construction.

[0076] In some embodiments, the end of the anchor body 31 in the length direction extends to the outside of the two connecting plates 32 in the opposite direction to form an extended anchor end 311;

[0077] The slotting and punching part 2 further includes a second cylindrical cutting die 22; the second cylindrical cutting die 22 is arranged corresponding to the outer peripheral side of the first cylindrical cutting die 21 and is vertically arranged to hammer the bottom plate 1, and the end thereof away from the hammering bottom plate 1 is the second punching end;

[0078] The second punching end is used to punch a preset depth on the outer peripheral side of the embedded part installation hole on the surface of the insulation board corresponding to the embedded part installation hole to form an annular pre-positioning groove No. 2, and the inner area of ​​the annular pre-positioning groove No. 2 on the insulation board is used to define a slotted area for opening an anchor body embedding groove for embedding the anchor body 31; or, the second punching end is used to punch through the insulation board on the outer peripheral side of the embedded part installation hole on the surface of the insulation board corresponding to the embedded part installation hole to form a penetration hole suitable for the penetration of the anchor body 31, and the inner cavity of the second cylindrical cutting die 22 is configured to store the insulation board punching strips used to backfill the penetration hole when the second cylindrical cutting die 22 punches through the insulation board.

[0079] The second cylindrical die 22 is arranged on the outer peripheral side of the first cylindrical die 21, and can be punched to form an annular pre-positioning groove II on the peripheral side of the embedded part installation through hole, providing a positioning basis for further opening an anchor body embedding groove on the surface of the insulation board; during construction, a groove is made in the groove area limited by the annular punching mark, that is, the wall material in the inner area of ​​the annular pre-positioning groove II is removed by using a groove tool, so that a more accurate anchor body embedding groove can be obtained. Alternatively, during construction, the first cylindrical die 21 and the second cylindrical die 22 can be used to punch through the insulation board together, and the first cylindrical die 21 and the second cylindrical die 22 cooperate to open a through hole on the insulation board for directly inserting the anchor body, that is, when installing the embedded part, one end of the anchor body 31 of the embedded part is first inserted into the through hole, and then the connecting plate 32 is inserted; the insulation board punching strip stored in the inner cavity of the second cylindrical die 22 is taken out, and the insulation board punching strip corresponding to the outer side of the two connecting plates in the opposite direction is inserted back into the through hole.

[0080] In some embodiments, the second blanking end is located between the first blanking end and the other side of the hammering bottom plate 1; there is a preset distance between the second blanking end and the first blanking end.

[0081] When in use, for thicker or harder insulation boards, first use the first cylindrical cutting die 21 to punch out an annular pre-positioning groove 1 52 on the insulation board 5, and then use an electric saw to cut out the embedded part installation hole 51; then the first cylindrical cutting die 21 is embedded in the embedded part installation hole 51 and the second cylindrical cutting die 22 is used to punch out an annular pre-positioning groove 2 54 on the insulation board 5, and then use a grooving tool to process the anchor body embedding groove; this can ensure that the processed anchor body embedding groove has a precise positional relationship with respect to the embedded part installation hole 51, thereby improving the installation accuracy of the embedded part, avoiding the appearance of a large gap between the embedded part and the insulation board 5, and improving the thermal insulation performance of the curtain wall system. For the insulation board with thin thickness or easy to punch out, the embedded part installation hole 51 is first punched out directly on the insulation board 5 by the first cylindrical cutting die 21. At the same time, the first cylindrical cutting die 21 does not need to be pulled out, and the second cylindrical cutting die 22 is continued to be used to punch out the annular pre-positioning groove 2 54 on the insulation board 5. Then the tooling is taken out to ensure the precise position relationship of the annular pre-positioning groove 2 54 relative to the embedded part installation hole 51, thereby improving the installation accuracy of the embedded part.

[0082] In some embodiments, see Figures 1 to 3 , Figures 1 to 3 The figure shows the arrangement state of the second cylindrical cutting die 22 being vertically fixed on the hammering base plate 1. At this time, the length of the first cylindrical cutting die 21 is not less than the thickness of the insulation board 5, and the length of the second cylindrical cutting die 22 is equal to the thickness of the anchor body 31; the preset spacing between the second blanking end and the first blanking end is determined by the length difference between the first cylindrical cutting die 21 and the second cylindrical cutting die 22.

[0083] In some embodiments, a reinforcing anchor plate 33 is fixed to the top end surface and / or the bottom end surface of the connecting plate 32 close to the anchor body 31; the reinforcing anchor plate 33 and the plate surface of the connecting plate 32 are located in the same plane and are integrally connected;

[0084] The slotting and punching part 2 also includes a plate-shaped slotting knife film 23; the plate-shaped slotting knife film 23 is vertically fixed to the other side of the hammering bottom plate 1, and the end thereof away from the hammering bottom plate 1 is a punching end 3 for punching a preset depth on the surface of the insulation board 5 to form a positioning groove for fitting and penetrating the reinforcing anchor plate 33;

[0085] The third blanking end corresponds to the first blanking end; or, the third blanking end corresponds between the second blanking end and the first blanking end.

[0086] In order to make the tooling adapt to the embedded parts 3 with the reinforcing anchor plates 33, a plate-shaped slotting knife film 23 is added to the surface of the hammer base plate 1. In the process of the first cylindrical die 21 being punched and embedded into the insulation board 5, the plate-shaped slotting knife film 23 can be used to punch out the positioning groove 55 suitable for the reinforcing anchor plates 33.

[0087] Specifically, the length of the plate-shaped slotting blade 23 is the same as that of the reinforcing anchor plate 33 , so as to be adapted to punch out the positioning groove 55 .

[0088] In some embodiments, a handle 12 is welded and mounted on the hammering surface 11 of the hammering base plate 1 .

[0089] The handle 12 facilitates holding and positioning of the tooling, and after punching is completed, the tooling can be easily pulled out through the handle 12 .

[0090] In some embodiments, an observation port 13 is provided in the middle of the hammering base plate 1 .

[0091] The function of the observation port 13 is to facilitate the operator to directly observe the embedding of the first cylindrical cutting die 21 into the thermal insulation board 5 during the punching process using the tooling.

[0092] Specifically, the hammer bottom plate 1 has a length of 256 mm, a width of 100 mm, and a thickness of 3 mm; the observation port 13 has a width of 40 mm.

[0093] In some embodiments, the backfill-free insulation board embedded parts tooling uses steel plates as processing and manufacturing materials; the thickness of the steel plate is the same as the thickness of the connecting plate 32 of the embedded part 3; this embodiment uses a 3mm thick steel plate, and the first cylindrical knife mold 21, the second cylindrical knife mold 22 and the plate-shaped grooving knife membrane 23 are manufactured by welding multiple steel plates.

[0094] In some embodiments, the second cylindrical cutting die 22 is arranged around the two side ends and the bottom end in the width direction of the first cylindrical cutting die 21, and its length is 22 mm.

[0095] Specifically, Figure 7 A schematic diagram of the hole and groove structure formed on the insulation board 5 after the backfill-free curtain wall embedded part tooling is used in the present invention is given. The upper groove hole structure formed on the insulation board 5 is suitable for first inserting one end of the connecting plate 32 of the embedded part 3 into the opened embedded part installation through hole, and then placing the anchor body 31 of the embedded part 3 into the anchor body embedding groove, so as to realize the installation of the embedded part 3 on the insulation board 5.

[0096] In some embodiments, see Figures 4 to 6 , another structural form of the tooling is given, that is, there are two second cylindrical cutting dies 22, and the two second cylindrical cutting dies 22 are symmetrically arranged at both ends of the first cylindrical cutting die 21; the inner cavity of the first cylindrical cutting die 21 is configured to store the insulation board punching block 53 used to adapt to the backfilling insulation block filling area 321 when the first cylindrical cutting die 21 punches through the insulation board 5. The inner cavity of the second cylindrical cutting die 22 is configured to store the insulation board punching strip block used to backfill the perforated hole when the second cylindrical cutting die 22 punches through the insulation board.

[0097] Specifically, Figures 4 to 6 The specific dimensions of another structural form of backfill-free curtain wall embedded parts tooling are as follows: the first cylindrical cutting mold 21 and the second cylindrical cutting mold 22 are both rectangular cylindrical. The length of the first cylindrical cutting mold 21 is 105mm, the width is 196mm, and the thickness is 19mm. The length of the second cylindrical cutting mold 22 is 105mm, the width is 30mm, and the thickness is 19mm; the two plate-shaped slotting knife films 23 are respectively fixed on both sides of the bottom width direction of the first cylindrical cutting mold 21; the thickness of the two plate-shaped slotting knife films 23 is 3mm, and the internal spacing between the two plate-shaped slotting knife films 23 is 190mm. Adopt Figures 4 to 6 Another structural form of the backfill-free curtain wall embedded component tooling is provided, which can first insert the anchor body 31 of the embedded component 3 into the opened installation through hole, and then put in the connecting plate 32 of the embedded component 3 to realize the installation of the embedded component 3 on the insulation board 5.

[0098] When in use, the first punching end is punched through the insulation board 5 to form the embedded part installation through hole 51, and the second punching end is punched through the insulation board on the outer peripheral side of the corresponding embedded part installation through hole on the insulation board surface to form a through hole that can be adapted to penetrate the anchor body 31; the plate-shaped slotted knife film 23 is punched into the insulation board 5 to form a filling hole adapted to be embedded in the reinforcing anchor plate 33; the insulation board punching block 53 is taken out from the inner cavity of the first cylindrical knife die 21, and the insulation board punching strip is taken out from the inner cavity of the second cylindrical knife die 22; the insulation board punching block 53 is adapted to be placed between the two connecting plates 32, and the anchor body 31 of the embedded part 3 is first inserted into the punching hole, and then the ends of the two connecting plates 32 close to the anchor body 31 are inserted into the anchor body 31, and the reinforcing anchor plate 33 enters the filling hole, and then the insulation board punching strip is adapted to be inserted into the through holes on the outer sides of the two connecting plates 32 in opposite directions. The embedded parts 3 can be installed on the insulation board 5 with high efficiency.

[0099] It should be noted that the specific dimensions of each part of the backfill-free insulation board embedded parts tooling can be designed according to needs to facilitate smooth and accurate installation of the embedded parts and reduce the installation gap between the embedded parts and the insulation board 5 to improve the insulation performance.

[0100] In some embodiments, see Figure 12 to Figure 14 , Figure 12 to Figure 14 The third structural form of the tooling is shown; the hammering base plate 1 is a whole steel plate, the hammering surface is larger, the deformation resistance is stronger during hammering, and it is more durable; the cross section of the handle 12 is circular, and the grip is more comfortable when held in hand.

[0101] In some embodiments, see Figures 15 to 17 , Figures 15 to 17 The fourth structural form of the tooling is shown; the improvement of the fourth structural form of the tooling is that the hammering base plate 1 is cut from a whole piece of steel plate and the handle 12 is a round handle that is more comfortable to hold.

[0102] Another embodiment provides a backfill-free insulation board embedded component construction method for a curtain wall system, including a backfill-free curtain wall embedded component tooling, including the following steps:

[0103] Step 1: Prepare the embedded parts 3 to be installed and installation tools, including the backfill-free insulation board embedded parts tooling, hammering tools and cutting saws;

[0104] Step 2: Press the blanking end of the first cylindrical die 21 of the backfill-free insulation board embedded tooling against the position on the surface of the insulation board 5 where the hole is to be opened, and use a hammering tool to hit the hammering surface 11 of the hammering bottom plate 1, so that the blanking end of the first cylindrical die 21 is pressed into the insulation board 5 to a certain depth, so as to form an annular pre-positioning groove 52 (hole positioning contour groove) on the surface of the insulation board 5;

[0105] Step 3: insert the saw blade of the cutting saw into the opening positioning contour groove and penetrate the insulation board 5, and under the guidance of the opening positioning contour groove, cut along the opening positioning contour groove to process the embedded part installation through hole 51 at the position of the insulation board 5 to be opened, and take out the cut insulation board cutting block;

[0106] Step 4: The cut insulation board blocks are adapted to be filled into the insulation block filling area 321 in the embedded part 3 as insulation blocks 4;

[0107] Step 5: Fit the connecting plate 32 of the embedded part 3 filled with the heat-insulating block 4 into the embedded part installation through hole 51 to complete the installation.

[0108] Specifically, in step 1, the installation tool also includes a slotting shovel;

[0109] In step 2, the second punching end of the second cylindrical die 22 is punched to a preset depth on the circumference of the embedded part installation through hole 51 on the surface of the insulation board 5 to form a second annular pre-positioning groove 54; the insulation board material in the inner area of ​​the second annular pre-positioning groove 54 is removed by a slotting shovel to form an anchor body embedding groove for embedding the anchor body 31;

[0110] In step five, the connecting plate 32 of the embedded part 3 filled with the heat-insulating block 4 is first fitted and inserted into the embedded part installation through hole 51, and then the anchor body 31 is fitted and embedded in the anchor body embedding groove.

[0111] For details, see Figure 1 When the first cylindrical knife die 21 punches out an annular pre-positioning groove 52, the plate-shaped slotting knife 23 punches out a pre-positioning groove on the insulation board 5, and the pre-positioning groove is cut and deepened by a cutting saw to form a positioning groove 55 adapted to be embedded in the reinforcing anchor plate 33.

[0112] Another embodiment provides a backfill-free insulation board embedded component construction method for a curtain wall system, including a backfill-free curtain wall embedded component tooling, including the following steps:

[0113] Step 1: Prepare the embedded parts 3 to be installed and the installation tools, including the embedded parts tooling of the non-backfill insulation board and the hammering tools; the hammering tools can be rubber hammer, iron hammer, electric hammer and pneumatic pick;

[0114] Step 2: Press the blanking end of the first cylindrical die 21 of the backfill-free insulation board embedded part tooling against the position on the surface of the insulation board 5 where the hole is to be opened, and use a hammering tool to hit the hammering surface 11 of the bottom plate 1, so that the blanking end of the first cylindrical die 21 punches through the insulation board 5, so as to form an embedded part installation through hole 51 on the surface of the insulation board 5, and the cut insulation board blanking block 53 remains in the inner cavity of the first cylindrical die 21;

[0115] Step 3: Take out the cut insulation board blanking block 53 from the inner cavity of the first cylindrical cutting die 21, and fill it into the insulation block filling area 321 in the embedded part 3 as the insulation block 4;

[0116] Step 4: Fit the connecting plate 32 of the embedded part 3 filled with the heat-insulating block 4 into the embedded part installation through hole 51 to complete the installation.

[0117] Specifically, in step 1, the installation tool also includes a slotting shovel;

[0118] In step 2, when the first cylindrical cutting die 21 punches through the insulation board 5, the second punching end 2 of the second cylindrical cutting die 22 punches a preset depth on the circumference of the embedded part installation through hole 51 on the board surface of the insulation board 5 to form a second annular pre-positioning groove 54; the grooved insulation board material 56 to be removed in the inner area of ​​the second annular pre-positioning groove 54 is removed by using a slotting shovel to form an anchor body embedding groove for embedding the anchor body 31;

[0119] In step 4, the connecting plate 32 of the embedded part 3 filled with the heat-insulating block 4 is inserted and loaded into the embedded part installation through hole 51, and the anchor body 31 is embedded and installed in the anchor body embedding groove.

[0120] For details, see Figure 1 When the first cylindrical cutting die 21 punches out the embedded component installation through hole 51 , the plate-shaped slotting cutting die 23 punches out the positioning groove 55 on the insulation board 5 to fit and embed the reinforcing anchor plate 33 .

[0121] The present invention can provide a convenient installation experience, select lightweight materials, and can use high-strength, lightweight alloy materials to manufacture tooling, which not only ensures the durability of the tool, but also reduces the burden on users when working at heights or difficult locations. The present invention has a handle that conforms to the hand structure. The handle adopts an ergonomic design that conforms to the natural holding posture, provides a comfortable grip, reduces fatigue caused by long-term use, makes operation easier, and reduces the physical burden on construction workers. The present invention uses a suitable size ratio design, and the size ratio of the backfill-free insulation board embedded tooling handle and the embedded wall tooling can make workers use it more labor-saving and can improve the work efficiency of workers.

[0122] The present invention has precise positioning and high-precision alignment functions. Through tooling, it can ensure that each connector can be accurately aligned during installation, and the connectors have a high degree of adaptability to holes and grooves and small gaps, making the overall structure more stable and sturdy, and the matching degree is higher. The present invention has strong compatibility and is applicable to a variety of materials: in addition to silicon graphene insulation boards, it is also compatible with other types of insulation materials to meet different construction needs. It adopts a modular design and can be customized according to different project requirements to improve construction flexibility. The present invention can improve construction efficiency and shorten construction time. Through rapid installation and precise positioning, it significantly reduces construction time and improves work efficiency; it can also reduce the error rate, and accurate positioning reduces installation errors, reduces the possibility of later maintenance and rework, and saves manpower and costs.

[0123] The present invention is applicable to a variety of working conditions (no need to remove the mold, integrated reverse hitting), and can match a variety of installation tools such as electric hammers and pneumatic picks. It can be applicable to a variety of working conditions. The no need to remove the mold working condition is when installing on site, the backfill-free insulation board tooling is used to directly make grooves on the front of the site, and then put in the connectors to achieve the purpose of accurate installation; the integrated reverse hitting is when the insulation board is laid on the mold table during production in the component factory, and the tooling is used to make grooves from the back, and then the connectors are put in. At the same time, the installation tooling can also be adapted to a variety of installation tools including hammers, electric hammers, and pneumatic picks, and the interface on the front of the tooling can be adjusted to adapt to different installation tools.

[0124] The present invention improves the compatibility of embedded parts (such as thermal bridge breaking connectors) with the insulation boards of the curtain wall system, reduces waste, and can cut out suitable insulation blocks, which can be taken out more conveniently. The taken out insulation blocks can be directly backfilled into the openings after the thermal bridge breaking connectors are placed in, thereby reducing the waste of insulation materials. Also, because the insulation boards are cut by tooling, their sizes are more compatible with the thermal bridge breaking products of the insulation boards.

[0125] In the description of this specification, the description with reference to the terms "one embodiment", "some embodiments", "example", "specific example", or "some examples" etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described may be combined in any one or more embodiments or examples in a suitable manner. In addition, those skilled in the art may combine and combine different embodiments or examples described in this specification.

[0126] Although the embodiments of the present invention have been shown and described above, it is to be understood that the above embodiments are exemplary and are not to be construed as limitations of the present invention. A person skilled in the art may change, modify, replace and vary the above embodiments within the scope of the present invention.

Claims

1. A backfill-free curtain wall embedded component tooling, the embedded component (3) comprising an anchor body (31), two connecting plates (32) vertically connected to one side of the anchor body (31) and arranged with plate surfaces relatively parallel; an insulation block filling area (321) is defined between the two connecting plates (32); characterized in that: include: A hammering bottom plate (1), wherein one side surface of the hammering bottom plate (1) is a hammering surface (11) for receiving the hammering of the hammer body; A slotting and punching portion (2), the slotting and punching portion (2) comprising a first cylindrical cutting die (21), the first cylindrical cutting die (21) being vertically fixed to the other side of the hammering base plate (1), the end of the first cylindrical cutting die (21) away from the hammering base plate (1) being a punching end one, the punching end one being used for punching a preset depth on the surface of the insulation board to form an annular pre-positioning groove one or punching through the insulation board to form an embedded part installation through hole adapted to penetrate the two connecting plates (32); the inner cavity of the first cylindrical cutting die (21) is configured to store the insulation board punching block adapted to backfill the insulation block filling area (321) when the first cylindrical cutting die (21) punches through the insulation board.

2. According to claim 1, a backfill-free curtain wall embedded tooling is characterized in that: The end of the anchor body (31) in the length direction extends to the outer sides of the two connecting plates (32) in the opposite direction to form an extended anchor end (311); The slotting and punching part (2) further comprises a second cylindrical cutting die (22); the second cylindrical cutting die (22) is arranged corresponding to the outer peripheral side of the first cylindrical cutting die (21) and is arranged perpendicular to the hammering bottom plate (1), and the end thereof away from the hammering bottom plate (1) is a second punching end; The second punching end is used to punch a preset depth on the surface of the insulation board corresponding to the outer peripheral side of the embedded part installation through hole to form an annular pre-positioning groove No. 2, and define a groove area for opening an anchor body embedding groove for embedding the anchor body (31) on the insulation board corresponding to the inner ring area of ​​the annular pre-positioning groove No. 2; or, the second punching end is used to punch through the insulation board on the surface of the insulation board corresponding to the outer peripheral side of the embedded part installation through hole to form a penetration hole suitable for penetrating the anchor body (31), and the inner cavity of the second cylindrical cutting die (22) is configured to store the insulation board punching strip for backfilling the penetration hole when the second cylindrical cutting die (22) punches through the insulation board.

3. According to claim 2, a backfill-free curtain wall embedded tooling is characterized in that: The second punching end is located between the first punching end and the other side plate surface of the hammering bottom plate (1); there is a preset distance between the second punching end and the first punching end.

4. The backfill-free curtain wall embedded tooling according to claim 3, characterized in that: A reinforcing anchor plate (33) is fixed to the top end surface and / or the bottom end surface of the connecting plate (32) on a side close to the anchor body (31); The slotting and punching part (2) also includes a plate-shaped slotting knife film (23); the plate-shaped slotting knife film (23) is vertically fixed to the other side of the hammering bottom plate (1), and the end thereof away from the hammering bottom plate (1) is a punching end three for punching a preset depth on the surface of the insulation board to form a positioning groove for fitting and penetrating the reinforcing anchor plate (33); The third blanking end corresponds to the first blanking end; or, the third blanking end corresponds between the second blanking end and the first blanking end.

5. The backfill-free curtain wall embedded tooling according to claim 1, characterized in that: A handle (12) is installed on the hammering surface (11) of the hammering base plate (1).

6. The backfill-free curtain wall embedded tooling according to claim 1, characterized in that: An observation port (13) is provided in the middle of the hammering bottom plate (1).

7. A method for constructing embedded parts of a curtain wall system without backfilling an insulation board, characterized in that: The invention comprises a backfill-free curtain wall embedded component tooling as claimed in any one of claims 1 to 6, comprising the following steps: Step 1: Prepare the embedded parts (3) to be installed and installation tools, including the embedded parts tooling for the insulation board without backfilling, hammering tools and cutting saws; Step 2: Pressing the blanking end of the first cylindrical cutting die (21) of the backfill-free insulation board embedded part tooling against the position on the insulation board surface where a hole is to be opened, and using a hammering tool to strike the hammering surface (11) of the hammering bottom plate (1), so that the blanking end of the first cylindrical cutting die (21) is pressed into the insulation board to a certain depth, so as to form an annular pre-positioning groove on the insulation board surface; Step 3: insert the saw blade of the cutting saw into the opening positioning contour groove and penetrate the insulation board, and under the guidance of the opening positioning contour groove, cut along the opening positioning contour groove to process the embedded part installation through hole at the position of the insulation board to be opened, and take out the cut insulation board cutting block; Step 4: The cut insulation board blocks are adapted and filled into the insulation block filling area (321) in the embedded part (3) as insulation blocks; Step 5: The connecting plate (32) of the embedded part (3) filled with the heat-insulating block is inserted and mounted in the embedded part mounting through hole, and the mounting is completed.

8. The method for constructing backfill-free insulation board embedded parts of a curtain wall system according to claim 7, characterized in that: The slotting and punching part (2) further comprises one or more second cylindrical cutting dies (22); one or more second cylindrical cutting dies (22) are arranged corresponding to the outer peripheral side of the first cylindrical cutting dies (21) and are arranged perpendicular to the hammering bottom plate (1), and the end thereof away from the hammering bottom plate (1) is a second punching end; In the step 1, the installation tool also includes a slotting shovel; In the second step, the second punching end of the second cylindrical cutting die (22) is punched to a preset depth on the surface of the insulation board corresponding to the peripheral side of the embedded component installation through hole to form a second annular pre-positioning groove; the insulation board material in the area inside the second annular pre-positioning groove is removed by a slotting shovel to form an anchor body embedding groove for embedding the anchor body (31); In the step five, the connecting plate (32) of the embedded part (3) filled with the heat-insulating block is inserted and mounted in the embedded part mounting through hole, and the anchor body (31) is embedded and mounted in the anchor body embedding groove.

9. A method for constructing embedded parts of a curtain wall system without backfilling an insulation board, characterized in that: The invention comprises a backfill-free curtain wall embedded component tooling as claimed in any one of claims 1 to 6, comprising the following steps: Step 1: Prepare the embedded parts (3) to be installed and installation tools, the installation tools include the embedded parts tooling of the non-backfill insulation board and the hammering tool; Step 2: Press the blanking end of the first cylindrical cutting die (21) of the backfill-free insulation board embedded part tooling against the position on the insulation board surface where a hole is to be opened, and use a hammering tool to strike the hammering surface (11) of the hammering bottom plate (1), so that the blanking end of the first cylindrical cutting die (21) punches through the insulation board to form an embedded part installation through hole on the insulation board surface, and the cut insulation board blanking block remains in the inner cavity of the first cylindrical cutting die (21); Step 3: taking out the cut insulation board blanking block from the inner cavity of the first cylindrical cutting die (21), and fitting it as an insulation block into the insulation block filling area (321) in the embedded part (3); Step 4: The connecting plate (32) of the embedded part (3) filled with the heat-insulating block is inserted and mounted in the embedded part mounting through hole, and the mounting is completed.

10. A backfill-free insulation board embedded construction method for a curtain wall system according to claim 9, characterized in that: The slotting and punching part (2) further comprises one or more second cylindrical cutting dies (22); one or more second cylindrical cutting dies (22) are arranged corresponding to the outer peripheral side of the first cylindrical cutting dies (21) and are arranged perpendicular to the hammering bottom plate (1), and the end thereof away from the hammering bottom plate (1) is a second punching end; In the step 1, the installation tool also includes a slotting shovel; In the second step, when the first cylindrical cutting die (21) punches through the insulation board, the second punching end of the second cylindrical cutting die (22) punches a preset depth on the surface of the insulation board corresponding to the peripheral side of the embedded component installation through hole to form a second annular pre-positioning groove; the insulation board material in the area inside the second annular pre-positioning groove is removed by using a slotting shovel to form an anchor body embedding groove for embedding the anchor body (31); In the fourth step, the connecting plate (32) of the embedded part (3) filled with the heat-insulating block is inserted and mounted in the embedded part mounting through hole, and the anchor body (31) is embedded and mounted in the anchor body embedding groove.

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