CN117905205A - Building energy-saving photoelectric quantum curtain wall and construction method thereof - Google Patents

Abstract

The present invention relates to a building energy-saving photovoltaic quantum curtain wall, which aims to solve the technical problem that the current photovoltaic curtain wall cannot be relatively adjusted in angle due to the fixed installation, resulting in a low rate of receiving sunlight, and includes a supporting keel, a mounting seat, a photovoltaic curtain wall component and a vertical push rod; the gap between the two supporting keels constitutes a mounting cavity; the mounting seat is arranged on the supporting keel and connected to the mounting cavity; wherein a photovoltaic curtain wall component is arranged between the two mounting seats. The present invention can drive the photovoltaic curtain wall component as a whole to adjust the vertical tilt through the vertical push rod setting, and cooperates with the photovoltaic curtain wall unit and the secondary mounting frame structure to be installed and installed, so that the building energy-saving photovoltaic quantum curtain wall can be adjusted through two levels of angles to adapt to the exposure of sunlight in different time periods, thereby increasing the exposure area of the photovoltaic curtain wall unit and the sunlight, and simultaneously improving the power generation efficiency.

Description

A building energy-saving photoelectric quantum curtain wall and its construction method

Technical Field

The invention relates to the technical field of photoelectric quantum curtain walls, and in particular to a building energy-saving photoelectric quantum curtain wall and a construction method thereof.

Background technique

Curtain walls are decorative components on the exterior surfaces of high-rise buildings. Photovoltaic quantum curtain walls are those that generate electricity by adapting solar panels installed in the curtain wall glass components. The clean energy generated by the photovoltaic integrated unit curtain wall is converted into electrical energy for power supply through an external transformer to achieve energy-saving effects.

Existing photovoltaic quantum curtain walls are mostly installed on high-rise buildings by fixing the photovoltaic curtain wall units with fixed connectors, and the overall connection is rigid. However, as a decorative component of a functional solar panel power generation solar panel, the conventional installation method of the photovoltaic quantum curtain wall is mostly fixed, and it is impossible to effectively adjust the angle of the photovoltaic curtain wall unit to effectively receive sunlight over a large area to perform efficient power generation. In view of this, we propose a building energy-saving photovoltaic quantum curtain wall and its construction method.

Summary of the invention

The purpose of the present invention is to overcome the shortcomings of the prior art, meet the actual needs, and provide a building energy-saving photovoltaic quantum curtain wall and a construction method thereof to solve the technical problem that the current photovoltaic curtain wall is fixedly installed, resulting in an inability to relatively adjust the angle and a low rate of solar radiation.

In order to achieve the purpose of the present invention, the technical solution adopted by the present invention is: designing a building energy-saving photovoltaic quantum curtain wall, including a supporting keel, a mounting seat, a photovoltaic curtain wall component and a vertical push rod; the gap between the two supporting keels constitutes a mounting cavity; the mounting seat is arranged on the supporting keel and connected to the mounting cavity; wherein a photovoltaic curtain wall component is arranged between the two mounting seats; at least one vertical push rod is hinged on the mounting seat in an inclined state to connect the photovoltaic curtain wall component; wherein the photovoltaic curtain wall component includes a primary mounting frame, a secondary mounting frame structure and a photovoltaic curtain wall unit; the primary mounting frame is arranged in the mounting cavity; the secondary mounting frame structure is hinged in the primary mounting frame; a number of photovoltaic curtain wall units are linearly and evenly spaced in sequence in the secondary mounting frame structure; wherein the supporting keel, the mounting seat, the vertical push rod, the primary mounting frame, the secondary mounting frame structure, and the photovoltaic curtain wall unit constitute a bidirectional inclined offset structure.

Preferably, the secondary mounting frame structure comprises a support frame body, a driving shaft, a driving arm A and a driving arm B; the support frame body is hinged in the primary mounting frame; wherein, a plurality of groups of limit adjustment cavities are symmetrically arranged on the upper and lower sides inside the support frame body; wherein, two adapting arc grooves are symmetrically arranged between the support frame body and the limit adjustment cavity; and, an opposing adjustment structure extending to the outside of the limit adjustment cavity is arranged in the limit adjustment cavity; wherein, a plurality of transverse support frames are arranged on one side of the support frame body relatively close to the mounting seat; a plurality of driving shafts are arranged in sequence in the support frame body with equal intervals and connected to the support frame body; and, the driving shaft is rotatably connected to the transverse support frames and the support frame body through bearings; and, at least one gear is fixedly arranged on the outer wall of the driving shaft; at least one driving arm A is fixedly arranged on the driving shaft; and the driving arm B is hinged on the driving arm A.

Preferably, the secondary mounting frame structure also includes a connecting slider arranged laterally on a side opposite to the gear, wherein the connecting slider is in the shape of a Chinese character "凵"; and the connecting slider is slidably matched with the transverse support frame; wherein the outer surfaces of several of the gears are meshed and connected by a chain, and the chain is fixedly connected to the connecting slider, wherein driving push rods fixedly connected to the support frame body are symmetrically arranged on both sides of the connecting slider.

Preferably, each group of the limit adjustment chambers is composed of two symmetrically distributed staggered grooves; wherein, the staggered grooves are in an "L" shape; wherein, an inner groove is arranged inside the staggered groove, and, a guide protrusion with a triangular structure is arranged on the side of the inner groove relatively away from the driving shaft, and, the tip of the guide protrusion and the transverse center axis of the inner groove are staggered; wherein, an auxiliary guide block with a core structure is arranged on the side of the inner groove relative to the tip of the guide protrusion, wherein a limit groove is arranged on the inner angle surface of the auxiliary guide block; wherein the side of the auxiliary guide block relatively away from the guide protrusion is a guide surface A; wherein, the guide surface A is inclined, and the guide surface A and the inner groove are located on the same horizontal center line.

Preferably, the opposing adjustment structure includes a limit seat and a hook seat; the limit seat is movably arranged in the staggered groove; wherein a column groove is axially opened inside the limit seat; and a plug-in groove is radially opened inside the limit seat; wherein an extrusion slope A is provided on the side of the limit seat relatively close to the adapting arc groove; wherein an inclined auxiliary groove is provided on the side of the limit seat relatively close to the photoelectric curtain wall unit; and the auxiliary groove is large at one end and small at the other end; the hook seat is penetrated in the plug-in groove and extends to the outside of the plug-in groove; and cylindrical hook-connecting protrusions are provided at both ends of the hook seat; wherein the limit seat is elastically connected to the support frame through the hook seat and the spring A.

Preferably, the two hook seats that are relatively close to the extrusion inclined surfaces A are both connected by a horizontal axis, wherein the two hook seats that are distributed in an upper and lower position are both connected by a vertical axis.

Preferably, a three-stage mounting frame is provided on the outer surface of the photoelectric curtain wall unit, wherein the three-stage mounting frame is movably provided with a connecting limit shaft relative to the position of the adapting arc groove; wherein the connecting limit shaft is elastically connected to the three-stage mounting frame through a spring B, and an auxiliary protrusion is provided on the surface of the connecting limit shaft; wherein the connecting limit shaft is provided with an inclined extrusion slope B on the side relatively close to the adapting arc groove, and the three-stage mounting frame is hingedly connected to the driving arm B.

A construction method for a building energy-saving photovoltaic quantum curtain wall comprises the following steps:

S100: Foundation fixing: Install the supporting keel to the building wall through expansion bolts; and install the mounting base to the supporting keel through bolts;

S200: Suspension installation: Use the suspension device to hang the photovoltaic curtain wall assembly to the installation cavity;

S300: Installation: Install the photovoltaic curtain wall assembly on the mounting base through bolts; and install the vertical push rods, horizontal support frames and supporting keels through bolts and anchors;

S400: Sealing treatment: Use tools to fill the gap between the photovoltaic curtain wall component and the mounting base with sealant.

Compared with the prior art, the present invention has the following beneficial effects:

1. The present invention can drive the photovoltaic curtain wall assembly as a whole to adjust the vertical tilt through the vertical push rod setting, and cooperate with the photovoltaic curtain wall unit and the secondary installation frame structure to be installed movably, so that the building energy-saving photovoltaic quantum curtain wall can be adjusted through two-level angles to adapt to the irradiation of sunlight in different time periods, thereby increasing the photovoltaic curtain wall unit and the sunlight irradiation area, and simultaneously improving the power generation efficiency.

2. The present invention drives the push rod to work in a relative stroke return stroke, causing the connecting slider to slide and move, and synchronously drives the chain to move, and cooperates with the chain to engage with the gear, so that multiple drive shafts can be synchronously driven to rotate and adjust, forcing the drive arm A to synchronously drive the drive arm B, thereby controlling the rotation and adjustment of the photoelectric curtain wall unit. This method has high operating efficiency and can synchronously drive multiple groups of photoelectric curtain wall units to rotate and adjust synchronously, thereby reducing manufacturing costs.

3. The present invention provides an inclined guide surface A and takes advantage of the fact that the guide surface A and the inner groove are located on the same horizontal center line, so that the opposing adjustment structure provides necessary guiding effect during the hooking process. This setting can improve the hooking success rate, and the tip of the guiding protrusion in the triangular structure and the transverse center axis of the inner groove are staggered, so that the opposing adjustment structure assists in guiding during the separation process, so as to facilitate the separation operation of the opposing adjustment structure.

4. In the present invention, each group of opposing adjustment structures always keeps one of them in a hooked state and the other in a separated state. By using this setting, the two adapter arc grooves are staggered and limited with each group of opposing adjustment structures. In this way, the rotation direction of the photoelectric curtain wall unit can be controlled on the two rotation axes on both sides of the photoelectric curtain wall unit. At the same time, the rotation adjustment method is used to make the photoelectric curtain wall unit rotate relative to the conventional center. The photoelectric curtain wall unit protrudes relatively from the secondary installation frame structure, so that the local surface of the photoelectric curtain wall unit is simultaneously reduced under the angle rotation adjustment. The situation caused by the secondary installation frame structure blocks the situation.

5. The present invention is based on the hooking and separation state of the secondary installation frame structure and the opposite adjustment structure. When the photoelectric curtain wall unit is in the plane state, the photoelectric curtain wall unit can be rotated based on the driving push rod, and one of the connecting limit shafts is used to squeeze the extrusion inclined surface A so that the limit seat retracts and moves the spring A synchronously, and the hook seat moves synchronously, so that the hooking protrusion is separated from the guide protrusion limit groove, and the spring A is used to synchronously drive the horizontal axis to move. Under the opposite force of the two springs A, the other hook seat is at the guide surface A. When resetting, the photoelectric curtain wall unit is rotated based on the driving push rod, and one of the connecting limit shafts rotates relatively in the opposite direction, so that the photoelectric curtain wall unit Contact the limit seat, and use the rotational force at the same time, under the action of the inclined extrusion slope B, force the connection limit shaft to descend and compress. When the connection limit shaft is located below the limit seat, the auxiliary protrusion coincides with one of the auxiliary grooves of the two groups of limit seats in the central force state. Use the inclined auxiliary groove to force one of the limit seats to move under the rotational force of the extruded connection limit shaft, and synchronously drive the movement of the other limit seat so that the other hook seat is hooked with the guide protrusion limit groove, resulting in the two groups of limit seats The hooking and separation states are exchanged, and by repeating the above operations, the rotation direction of the photoelectric curtain wall unit is reciprocated based on the state of the protruding secondary installation frame structure.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic diagram of a front three-dimensional structure of the present invention;

FIG2 is a rear perspective structural schematic diagram of the present invention;

FIG3 is a schematic diagram of the three-dimensional structure of the secondary installation frame structure in the present invention;

4 is a schematic diagram of the primary installation frame, the secondary installation frame structure, and the photovoltaic curtain wall unit installation structure in the present invention;

FIG5 is a schematic diagram of a partial enlarged structure of point A in FIG4 of the present invention;

FIG6 is a schematic diagram of a partially disassembled structure of a support frame in the present invention to illustrate the installation position of the opposing adjustment structure;

FIG7 is a schematic diagram of the auxiliary slot structure of the present invention;

FIG8 is a schematic diagram of a partial cross-section of a support frame and a cross-section structure of a corresponding adjustment structure in the present invention;

FIG9 is a schematic diagram of a partial internal front view of the support frame of the present invention;

FIG10 is a schematic diagram of a top view of the secondary mounting frame structure in the present invention to illustrate the mounting positions of the drive arm and the drive arm B;

11 is a top view of the secondary installation frame structure of the present invention, showing the installation positions of the gears, chains, and connecting sliders.

In the figure: 1. Support keel; 2. Mounting seat; 3. Photovoltaic curtain wall assembly; 4. Vertical push rod; 5. Primary installation frame; 6. Secondary installation frame structure; 7. Photovoltaic curtain wall unit; 8. Opposite adjustment structure;

601, support frame; 6011, transverse support frame; 6012, staggered grooves; 6013, inner grooves; 6014, guide protrusions; 6015, auxiliary guide blocks; 6016, guide surface A; 6019, adapter arc grooves; 602, drive shaft; 6021, gear; 603, drive arm A; 604, drive arm B; 605, connecting slider; 606, chain; 607, drive push rod;

701, three-level installation frame; 702, connection limit axis;

801, limit seat; 8011, column slot; 8012, plug-in slot; 8013, auxiliary slot; 802, hook seat; 8021, hooking protrusion.

Detailed ways

The present invention is further described below in conjunction with the accompanying drawings and embodiments:

Embodiment 1: A building energy-saving photovoltaic quantum curtain wall, see Figures 1 to 11, includes a supporting keel 1, a mounting seat 2, a photovoltaic curtain wall component 3 and a vertical push rod 4; the gap between the two supporting keels 1 constitutes a mounting cavity; the mounting seat 2 is arranged on the supporting keel 1 and connected to the mounting cavity; wherein a photovoltaic curtain wall component 3 is arranged between the two mounting seats 2; at least one vertical push rod 4 is hinged on the mounting seat 2 in an inclined state to connect the photovoltaic curtain wall component 3; wherein the photovoltaic curtain wall component 3 includes a primary mounting frame 5, a secondary mounting frame structure 6 and a photovoltaic curtain wall unit 7; the primary mounting frame 5 is arranged in the mounting cavity; the secondary mounting frame structure 6 is hinged in the primary mounting frame 5; a plurality of photovoltaic curtain wall units 7 are linearly and evenly spaced in sequence in the secondary mounting frame structure 6; wherein the supporting keel 1, the mounting seat 2, the vertical push rod 4, the primary mounting frame 5, the secondary mounting frame structure 6, and the photovoltaic curtain wall unit 7 constitute a bidirectional inclined offset structure. The present invention can drive the photovoltaic curtain wall assembly 3 as a whole to adjust the vertical tilt through the vertical push rod 4, and cooperate with the photovoltaic curtain wall unit 7 and the secondary installation frame structure 6 to be installed movably, so that the building energy-saving photovoltaic quantum curtain wall can be adjusted through two levels of angles to adapt to the irradiation of sunlight in different time periods, thereby increasing the irradiation area of the photovoltaic curtain wall unit 7 and the sunlight, and simultaneously improving the power generation efficiency.

Specifically, the secondary installation frame structure 6 includes a support frame body 601, a driving shaft 602, a driving arm A603 and a driving arm B604; the support frame body 601 is hinged in the primary installation frame 5; wherein, a plurality of groups of limit adjustment cavities are symmetrically arranged on the upper and lower sides inside the support frame body 601; wherein, two adapting arc grooves 6019 are symmetrically arranged between the support frame body 601 and the limit adjustment cavities; and, an opposite adjustment structure 8 extending to the outside of the limit adjustment cavity is arranged in the limit adjustment cavity.

Each set of limit adjustment cavities consists of two symmetrically distributed staggered grooves 6012; wherein, the staggered grooves 6012 are in an "L" shape; an inner groove 6013 is arranged inside the staggered groove 6012, and, a guide protrusion 6014 with a triangular structure is arranged on the side of the inner groove 6013 relatively away from the driving shaft 602, and the tip of the guide protrusion 6014 and the transverse center axis of the inner groove 6013 are staggered; wherein, an auxiliary guide block 6015 with a core structure is arranged on the side of the inner groove 6013 relatively to the tip of the guide protrusion 6014, wherein the auxiliary guide block 6015 has a limited groove arranged on the inner angle surface; wherein, the side of the auxiliary guide block 6015 relatively away from the guide protrusion 6014 is a guide surface A6016; wherein, the guide surface A6016 is inclined, and the guide surface A6016 and the inner groove 6013 are located on the same horizontal center line.

The opposing adjustment structure 8 includes a limit seat 801 and a hook seat 802; the limit seat 801 is movably arranged in the staggered groove 6012; wherein, a column groove 8011 is axially opened inside the limit seat 801; and, a plug-in groove 8012 is radially opened inside the limit seat 801; wherein, an extrusion slope A is arranged on the side of the limit seat 801 relatively close to the adapting arc groove 6019; it is worth noting that the two hook seats 802 relatively close to the extrusion slopes A are both connected by a horizontal axis installation, wherein, the two hook seats 802 distributed in an upper and lower position are both connected by a vertical axis installation.

An inclined auxiliary groove 8013 is provided on the side of the limiting seat 801 relatively close to the photoelectric curtain wall unit 7; and the auxiliary groove 8013 is larger at one end and smaller at the other end; the hook seat 802 is penetrated into the plug-in groove 8012 and extends to the outside of the plug-in groove 8012; and cylindrical hooking protrusions 8021 are provided at both ends of the hook seat 802; wherein, the limiting seat 801 is elastically connected to the support frame 601 through the hook seat 802 and the spring A. In the present invention, each group of opposing adjustment structures 8 always keeps one of them in a hooked state and the other in a separated state. By using this setting, the two adapting arc grooves 6019 are staggered and limited with each group of opposing adjustment structures 8. In this way, the rotation direction of the photoelectric curtain wall unit 7 can be controlled on the two rotation axes on both sides of the photoelectric curtain wall unit 7. At the same time, by using the rotation adjustment method, the photoelectric curtain wall unit 7 is rotated relative to the conventional center. The photoelectric curtain wall unit 7 protrudes relatively from the secondary installation frame structure 6, so that the photoelectric curtain wall unit 7 can simultaneously reduce the situation where the local surface is blocked by the secondary installation frame structure 6 under the angle rotation adjustment.

The present invention provides an inclined guide surface A6016 and takes advantage of the fact that the guide surface A6016 and the inner groove 6013 are located on the same horizontal center line, so that the opposing adjustment structure 8 provides necessary guiding function during the hooking process. This setting can improve the hooking success rate, and the tip of the guiding protrusion 6014 in a triangular structure and the horizontal center axis of the inner groove 6013 are staggered, so that the opposing adjustment structure 8 assists in guiding work during the separation process, so as to facilitate the separation operation of the opposing adjustment structure 8.

Furthermore, a plurality of transverse support frames 6011 are provided on one side of the support frame body 601 relatively close to the mounting seat 2; a plurality of driving shafts 602 are arranged in sequence in the support frame body 601 with gaps and equal intervals to connect the support frame body 601; and the driving shaft 602 is rotatably connected to the transverse support frames 6011 and the support frame body 601 through bearings; and at least one gear 6021 is fixedly provided on the outer wall of the driving shaft 602; at least one driving arm A603 is fixedly provided on the driving shaft 602; and the driving arm B604 is hinged to the driving arm A603.

Furthermore, the secondary mounting frame structure 6 also includes a connecting slider 605 arranged transversely on one side of the gear 6021, wherein the connecting slider 605 is in the shape of a "凵" character; and the connecting slider 605 is slidably matched with the transverse support frame 6011; wherein the outer surfaces of the plurality of gears 6021 are all meshed and connected by a chain 606, and the chain 606 is connected and fixed to the connecting slider 605, wherein the connecting slider 605 is symmetrically provided with a driving push rod 607 fixedly connected to the support frame body 601 on both sides. The present invention drives the push rod 607 to work in a relative return stroke, so that the connecting slider 605 slides and moves, and synchronously drives the chain 606 to move, and cooperates with the meshing connection of the chain 606 and the gear 6021, so that the multiple driving shafts 602 can be synchronously driven to rotate and adjust, and the driving arm A603 is forced to synchronously drive the driving arm B604, thereby controlling the rotation and adjustment of the photoelectric curtain wall unit 7, and the operation efficiency of this method is high, and the synchronous rotation and adjustment of multiple groups of photoelectric curtain wall units 7 are synchronously driven, thereby reducing the manufacturing cost.

It is worth mentioning that a three-level mounting frame 701 is provided on the outer surface of the photoelectric curtain wall unit 7, wherein the three-level mounting frame 701 is movably provided with a connecting limit shaft 702 relative to the adapting arc groove 6019; wherein the connecting limit shaft 702 is elastically connected to the three-level mounting frame 701 through a spring B, and an auxiliary protrusion is provided on the surface of the connecting limit shaft 702; wherein the connecting limit shaft 702 is provided with an inclined extrusion slope B on the side relatively close to the adapting arc groove 6019, and the three-level mounting frame 701 is hingedly connected to the driving arm B604.

The present invention is based on the hooking and separation state of the secondary installation frame structure 6 and the opposite adjustment structure 8. When the photoelectric curtain wall unit 7 is in a plane state, the photoelectric curtain wall unit 7 can be rotated based on the driving push rod 607, and one of the connecting limit shafts 702 is used to extrude the extrusion inclined surface A so that the limit seat 801 retracts and the moving spring A is synchronously compressed, and the hook seat 802 moves synchronously, so that the hooking protrusion 8021 is separated from the limiting groove of the guide protrusion 6014, and the spring A is used to synchronously drive the horizontal axis to move. Under the opposite forces of the two springs A, the other hook seat 802 is at the guide surface A6016. When resetting, the photoelectric curtain wall unit 7 is driven by the driving push rod 607 to rotate one of the connecting limit shafts 702 to rotate relatively in the opposite direction, so that the photoelectric curtain wall unit 7 contacts the limit Seat 801, and at the same time, utilize the rotational force, under the action of the inclined extrusion slope B, force the connection limit shaft 702 to descend and be compressed. When the connection limit shaft 702 is located below the limit seat 801, the auxiliary protrusion coincides with one of the auxiliary grooves 8013 of the two groups of limit seats 801 in the central force state. Utilize the inclined auxiliary groove 8013 to force one of the limit seats 801 to move under the rotational force of the extruded connection limit shaft 702, and synchronously drive the other limit seat 801 to move so that the other hook seat 802 is hooked with the limit groove of the guide protrusion 6014, so that the hooking and separation states of the two groups of limit seats 801 are exchanged. By repeating the above operation, the rotation direction of the photoelectric curtain wall unit 7 is reciprocated based on the state of the protruding secondary installation frame structure 6.

Embodiment 2: A construction method of a building energy-saving photovoltaic quantum curtain wall, comprising the following steps:

S100: Foundation fixing: installing the supporting keel 1 to the building wall through expansion bolts; and installing the mounting base 2 to the supporting keel 1 through bolts;

S200: Suspension installation: The photovoltaic curtain wall assembly 3 is suspended to the installation cavity by a suspension device;

S300: Installation process: Install the photovoltaic curtain wall assembly 3 on the mounting seat 2 by means of bolts; and install the vertical push rod 4 with the horizontal support frame 6011 and the supporting keel 1 by means of bolts and a twisted seat;

S400: Sealing process: Use tools to fill the connection gap between the photovoltaic curtain wall component 3 and the mounting seat 2 with sealant.

The embodiments of the present invention disclose preferred embodiments, but are not limited thereto. A person skilled in the art can easily understand the spirit of the present invention based on the above embodiments and make different extensions and changes. However, as long as they do not deviate from the spirit of the present invention, they are all within the protection scope of the present invention.

Claims (8)

1. The building energy-saving photoelectric quantum curtain wall is characterized by comprising a supporting keel (1), an installation seat (2), a photoelectric curtain wall assembly (3) and a vertical push rod (4);

A gap between the two support keels (1) forms an installation cavity; the mounting seat (2) is arranged on the supporting keel (1) and is connected with the mounting cavity; a photoelectric curtain wall assembly (3) is arranged between the two mounting seats (2); at least one vertical push rod (4) is obliquely hinged on the mounting seat (2) and is connected with the photoelectric curtain wall assembly (3);

The photoelectric curtain wall assembly (3) comprises a primary installation frame (5), a secondary installation frame structure (6) and a photoelectric curtain wall unit (7);

The primary mounting frame (5) is arranged in the mounting cavity; the secondary installation frame structure (6) is hinged in the primary installation frame (5); a plurality of photoelectric curtain wall units (7) are sequentially arranged in the secondary installation frame structure (6) at equal intervals in a linear mode;

The support keel (1), the mounting seat (2), the vertical push rod (4), the primary mounting frame (5), the secondary mounting frame structure (6) and the photoelectric curtain wall unit (7) form a bidirectional inclined offset structure.

2. The building energy-saving photoelectric quantum curtain wall according to claim 1, wherein the secondary mounting frame structure (6) comprises a support frame body (601), a driving shaft (602), a driving arm a (603) and a driving arm B (604);

The support frame body (601) is hinged in the primary installation frame (5); a plurality of groups of limit adjusting cavities are symmetrically arranged on the upper side and the lower side of the inside of the supporting frame body (601); two adaptive arc grooves (6019) are symmetrically arranged between the supporting frame body (601) and the limiting and adjusting cavity; a counter-direction adjusting structure (8) extending to the outside of the limit adjusting cavity is arranged in the limit adjusting cavity; a plurality of transverse supporting frames (6011) are arranged on one side, relatively close to the mounting seat (2), of the supporting frame body (601); the driving shafts (602) are sequentially arranged in the supporting frame body (601) at equal intervals and are connected with the supporting frame body (601); the driving shaft (602) is rotatably connected with the transverse supporting frame (6011) and the supporting frame body (601) through bearings; at least one gear (6021) is fixedly arranged on the outer wall of the driving shaft (602); at least one driving arm A (603) is fixedly arranged on the driving shaft (602); the driving arm B (604) is hinged to the driving arm A (603).

3. The building energy-saving photoelectric quantum curtain wall according to claim 2, wherein the secondary mounting frame structure (6) further comprises a connecting slide block (605) transversely arranged at one side opposite to the gear (6021), and the connecting slide block (605) is in a U shape; the connecting sliding block (605) is in sliding fit with the transverse supporting frame (6011); the outer surfaces of the gears (6021) are all connected in a meshed mode through a chain (606), the chain (606) is fixedly connected with the connecting sliding block (605), and driving push rods (607) fixedly connected with the supporting frame body (601) are symmetrically arranged on two sides of the connecting sliding block (605).

4. The building energy-saving photoelectric quantum curtain wall according to claim 3, wherein each group of limiting adjusting cavities consists of two symmetrically distributed staggered grooves (6012); the staggered grooves (6012) are L-shaped; an inner groove (6013) is formed in the staggered groove (6012), a guide protrusion (6014) with a triangular structure is arranged on one side, which is relatively far away from the driving shaft (602), of the inner groove (6013), and the tips of the guide protrusions (6014) and the transverse central axis of the inner groove (6013) are distributed in a staggered mode; an auxiliary guide block (6015) with a heart structure is arranged on one side of the inner groove (6013) opposite to the tip of the guide protrusion (6014), and a limiting groove is arranged on the inner corner surface of the auxiliary guide block (6015) opposite to the inner corner surface; one surface of the auxiliary guide block (6015) which is relatively far away from the guide protrusion (6014) is a guide surface A (6016); the guide surface A (6016) is inclined, and the guide surface A (6016) and the inner groove (6013) are positioned on the same horizontal central line.

5. The building energy-saving photoelectric quantum curtain wall according to claim 4, wherein the opposite direction adjusting structure (8) comprises a limit seat (801) and a hook seat (802);

The limiting seat (801) is movably arranged in the staggered groove (6012); a column groove (8011) is axially formed in the limit seat (801); a plug-in groove (8012) is radially formed in the limiting seat (801); an extrusion inclined plane A is arranged on one side of the limiting seat (801) relatively close to the adaptive arc groove (6019); an auxiliary groove (8013) which is inclined is formed in one side, relatively close to the photoelectric curtain wall unit (7), of the limiting seat (801); the auxiliary groove (8013) is in a shape with one large end and one small end; the hook seat (802) penetrates through the inserting groove (8012) and extends to the outside of the inserting groove (8012); both ends of the hooking seat (802) are provided with columnar hooking bulges (8021); the limiting seat (801) is elastically connected with the supporting frame body (601) through a hook seat (802) and a spring A.

6. The building energy-saving photoelectric quantum curtain wall according to claim 5, wherein the two hook seats (802) relatively close to the extrusion inclined plane A are connected through a transverse shaft, and the two hook seats (802) distributed in an up-down mode are connected through a vertical shaft.

7. The building energy-saving photoelectric quantum curtain wall according to claim 6, wherein a three-stage installation frame (701) is arranged on the outer surface of the photoelectric curtain wall unit (7), and a connection limiting shaft (702) is movably arranged at the position of the three-stage installation frame (701) relative to the adapting arc groove (6019); the connecting limiting shaft (702) is elastically connected with the three-stage mounting frame (701) through a spring B, and auxiliary protrusions are arranged on the surface of the connecting limiting shaft (702); the three-stage mounting frame (701) is hinged with the driving arm B (604).

8. The construction method of the building energy-saving photoelectric quantum curtain wall according to any one of claims 1 to 7, comprising the following steps:

S100: and (3) foundation fixing: installing the support keel (1) on a building wall body through expansion bolts; the mounting seat (2) is mounted on the supporting keel (1) through bolts;

S200: and (3) hanging and installing: hanging the photoelectric curtain wall assembly (3) to the installation cavity through a hanging device;

S300: and (3) mounting: the photoelectric curtain wall assembly (3) is mounted on the mounting seat (2) through bolts; the vertical push rod (4), the transverse supporting frame (6011) and the supporting keel (1) are installed through bolts and a hinged seat;

s400: sealing treatment: and the joint gap between the photoelectric curtain wall component (3) and the mounting seat (2) is filled with sealant by a tool.