TWI484089B - Module structure of smart solar window and curtain - Google Patents

Description

Modular construction of smart solar windows and curtains

The invention relates to a module structure of a smart solar window and a curtain, in particular to a power storage device and a control device in a first flow channel of the support rod, thereby modularly installing windows or curtains of different buildings. Use for series or parallel connection to select output DC or AC.

At present, due to the lack of international energy, solar energy devices have been widely used, and sunlight is directly converted into electrical energy, and is most commonly used for power supply of general buildings, such as the new type announced by the Republic of China on March 11, 1998. No. M352572, "Lighting-type door and window structure with solar energy storage" patent case, which discloses: a frame in which a door and window frame is placed; a window frame on which a plurality of LED lights are arranged on the inner side of the door frame. The inner layer is provided with glass, and an anti-theft tube is arranged in the middle; the outer surface of the anti-theft tube has a solar panel; a control box is disposed at a suitable position on the side of the window frame, and the solar panel passes the power source The connection is provided with an IC circuit control device, a battery, and a touch switch; firstly, the solar light is directly irradiated on the solar panel outside the anti-theft tube to generate energy, and is sent to the IC circuit control device in the control box via the power source. It is converted into electric energy and stored on the built-in battery for the electric energy required by the LED lamp.

However, since the above-mentioned structure cannot utilize the power generated by the respective window frames in series or in parallel, it can be used only for low-cost electric appliances such as lighting, and the windows cannot be modularly installed in different ways. The building or various floors are used together, so the production cost is high and the scope of use Small, low power generation, it is difficult to achieve comprehensive production and use.

Therefore, in view of the fact that the current solar window or curtain has many disadvantages in use, the present invention provides a module structure of a smart solar window, comprising: a window body, which is provided with at least two oppositely disposed support rods. The two supporting rods are provided with corresponding fixing portions, and a glass layer is fixed between the two fixing portions, and the supporting rods are provided with an inner side surface and an outer side surface, and the inner side surface and the outer side surface of the supporting rod are connected a first flow channel and a second flow channel are provided, an inlet is formed below the inner side of the support rod to penetrate the first flow channel, and an outlet is provided at the upper portion to the first flow channel; a solar photovoltaic module The device is fixed to the glass layer of the window body; a power storage device is disposed in the first flow channel, the power storage device is electrically connected to the solar photovoltaic module; and a control device is disposed in the first flow In the circuit, the control device is electrically connected to the solar photovoltaic module and the power storage device, and a heat dissipation unit is disposed in the control device.

The control device comprises a constant/alternative converter circuit module, a boost/down circuit and a voltage regulator circuit module, a charge/discharge controller circuit module, and an output power controller circuit module.

A first opening is disposed below the outer side surface, a first screen is disposed on the first opening, and a second opening is disposed on the outer side of the outer side, and a second screen is disposed on the second opening.

An inlet is disposed at a lower portion of the inner side surface, and a first fan is disposed on the inlet, and an outlet is disposed above the inner side surface, and a second fan is disposed on the outlet.

The control device is provided with a DC voltage switching switch and an AC voltage switching switch. The AC voltage switching switch is respectively connected with a 110VAC socket and a 220VAC socket, and the AC voltage switching switch, the 110VAC socket and the 220VAC socket are respectively protruded. On the inner side of the window body, the DC voltage switch is respectively provided with a series connection box, a parallel junction box, and a DC socket for providing a series or parallel connection to provide a DC output. .

The heat dissipating unit of the control device comprises a heat conducting block and a heat dissipating fin.

The invention can also be a module structure of a smart solar curtain, comprising: a curtain body, which is provided with at least two oppositely disposed support bars, the two support bars are provided with corresponding fixing portions, and the two fixing portions are A glass layer is fixed between the support rods, and the support rod is provided with an inner side surface and an outer side surface. The inner side surface and the outer side surface of the support rod are provided with a first flow passage and a second flow passage. An inlet is connected to the first flow passage at the lower portion, and an outlet is connected to the first flow passage at the upper portion; a solar photovoltaic module is fixed on the glass layer of the curtain body; and a power storage device is provided In the first flow channel, the power storage device is electrically connected to the solar photovoltaic module; a control device is disposed in the first flow channel, and the control device is electrically connected to the solar photovoltaic module and stores electricity The device is provided with a heat dissipation unit in the control device.

The control device comprises a constant/alternative converter circuit module, a boost/down circuit and a voltage regulator circuit module, a charge/discharge controller circuit module, and an output power controller circuit module.

A first opening is disposed below the outer side surface, a first screen is disposed on the first opening, and a second opening is disposed on the outer side of the outer side, and a second screen is disposed on the second opening.

An inlet is disposed at a lower portion of the inner side surface, and a first fan is disposed on the inlet, and an outlet is disposed above the inner side surface, and a second fan is disposed on the outlet.

The control device is provided with a DC voltage switching switch and an AC voltage switching switch. The AC voltage switching switch is respectively connected with a 110VAC socket and a 220VAC socket, and the AC voltage switching switch, the 110VAC socket and the 220VAC socket are respectively protruded. On the inner side of the curtain body, the DC voltage switching switch is respectively provided with a series connection box, a parallel junction box, and a DC socket for providing a power supply of the DC device as a series or parallel connection. Output.

The second flow passage is provided with a retaining wall and is divided into two small flow passages.

The second flow channel is additionally filled with a filler.

The heat dissipating unit of the control device comprises a heat conducting block and a heat dissipating fin.

The invention has the following advantages:

1. The present invention has been made modular for use in installation on a variety of different buildings as windows or curtains.

2. According to the invention, each power storage device can be connected in series or in parallel by using a power line, so that it can be selected according to different usage requirements.

3. The invention can receive the electric energy generated by the solar photovoltaic module, and switch it to the alternating current output for the building through the direct/alternating voltage switch. After using various electrical appliances, or switching to DC power, the battery and other devices are charged through the charger and the charging controller.

4. The present invention utilizes a direct/alternating voltage switch that is selectively inserted into a 110 VAC outlet or a 220 VAC outlet for use as a supply of 110 VAC or 220 VAC.

5. The invention has an inlet at the lower side of the inner side of the support rod, and an outlet at the upper portion for allowing hot air to flow upwardly in the first flow passage, thereby improving the heat dissipation efficiency.

6. The invention has a heat dissipating unit mounted on the surface of the circuit module of the control device for heat exchange, which can reduce the working temperature thereof, and has a cycle for indoor cooling and repeated cycles, thereby achieving the best heat dissipation efficiency.

7. The present invention can be filled with a filler in the second flow path, thereby enhancing the radiation heat blocking the outside to enter the room.

8. The present invention has a first opening having a first filter screen at a lower side of the outer side surface, and a second opening having a second filter mesh at the upper portion for heat exchange to rapidly cool the frame, and It can block foreign matter or insects from entering.

The invention is a module structure of a smart solar window. First, please refer to the first figure, the second figure and the third figure, including a window body (1), a solar photovoltaic module (2), and a a power storage device (3) and a control device (4), wherein:

a window body (1), which is made of metal, alloy, ceramic, plastic, etc., through extrusion, sheet metal, injection, sintering, forging, etc. Formed by a plurality of processing methods, the window body (1) is provided with at least two oppositely disposed support rods (11), and the two support rods (11) are provided with corresponding fixing portions (12), the two A glass layer (13) is fixed between the fixing portions (12), and the two supporting rods (11) are provided with an inner side surface (14) and an outer side surface (15), and the inner side surface of the supporting rod (11) (14) And a first flow path (16) and a second flow path (17) disposed between the front side and the rear side (15), and the first flow path (16) and the second flow path (17) The system is not penetrated, and an inlet (18) is provided below the inner side surface (14) of the support rod (11) to penetrate the first flow path (16), and the upper side (14) of the support rod (11) is disposed above the inner side (14). An outlet (19) is connected to the first flow channel (16), and a first opening (151) is disposed below the outer side surface (15). The first opening (151) is provided with a first filter screen ( 152), a second opening (153) is disposed above the outer side surface (15), and the second opening (153) is provided with a second filter screen (154), and one of the support rods (11) A first fan (181) is disposed on the inlet (18), and a second is disposed on the outlet (19). Fan (191).

a solar photovoltaic module (2) fixed to the glass layer (13) of the window body (1) for converting sunlight into electrical energy output, the solar photovoltaic module (2) being attachable in the form of a film or Plated on the surface of the glass layer (13), or embedded between the two glass layers (13), and the area of the solar photovoltaic module (2) mounted on the glass layer (13) may include the glass layer (13) The entire surface or partial surface of the solar cell module (2) may be opaque or light transmissive.

A power storage device (3) may be a battery pack disposed in the first flow channel (16), the power storage device (3) being electrically connected to the solar energy The photoelectric module (2) is used to charge and store the electrical energy generated by the solar photovoltaic module (2).

a control device (4) is disposed in the first flow channel (16), the control device (4) is electrically connected to the solar photovoltaic module (2) and the power storage device (3), the control device ( 4) comprising a constant/AC converter circuit module (41), a l/b circuit and a voltage regulator circuit module (42), a charge/discharge controller circuit module (43) and an output power control The circuit module (44) is integrated on the module of the same control device (4) (as shown in the fifth figure), and a heat dissipation unit (45) is provided in the control device (4). The AC voltage switch (46), the DC voltage switch (47), and the DC voltage socket (48) are used according to the requirements of the use condition, and the DC/AC converter circuit module (41) is used. The circuit and voltage regulator circuit module (42) converts or switches it to the required AC voltage or DC voltage output for use by various electrical appliances in the building, or after switching to the required DC voltage, and then through a charge / a discharge controller module (41) for charging the power storage device (3); or adjusting the solar photovoltaic device by using the output power controller circuit module (44) The heat dissipation unit (45) includes a heat conducting block (451) and a heat sink fin (452), and the AC voltage switch (46) is respectively connected with a 110VAC socket. (461) and a 220VAC socket (462), the DC voltage switching switch (47) is respectively provided with a series junction box (471), a parallel junction box (472) and a DC voltage socket (48) for As the serial/parallel connection point between the modules, or the power supply output of the DC device, the inner side (14) of the window body (1) is respectively disposed.

When in use, as shown in the first, third and sixth figures, the window body (1) is fixed at the position of each window on the building (C), so that the support rod (11) The inner side (14) is facing indoors, and the outer side (15) is facing outward, so that each solar photovoltaic module (2) can be used separately and output direct/alternating voltage, and the power cord can be utilized ( D) Connect the junction box (471) in series with the window body (1) and the junction box (472) in parallel, and connect each solar photovoltaic module (2) in series or parallel to increase the overall output voltage. Or current.

Thus, when the sunlight is applied to the solar photovoltaic module (2) on the glass layer (13) of the window body (1), the solar module (2) is used by the control device (4) inside the window body (1). The generated electrical energy is converted into the required current and voltage.

In addition, in order to achieve the structure of each control device (4), the modular design requirements of the output direct/AC voltage can be used separately, so the control device (4) must be always/AC converter circuit module (41) , a l/b circuit and voltage regulator circuit module (42), a charge/discharge controller circuit module (43), and an output power controller circuit module (44) for integrating a circuit board Arranged in a dense manner in a narrow support rod (11), so when the window body (1) is operated, the electronic components of the control device (4) circuit board will generate high temperature, thereby affecting the control device (4) Normal operation, even under long-term operation, there will be burning concerns.

On the other hand, the heat generated by the outdoor radiation radiated by the sun on the window body (1), if not properly blocked or dissipated, is also transmitted to the inside through the outer side (15) of the window body (1), causing the window. Body (1) internal circuit board electronics Component temperature rise and overheating issues.

In order to solve the problem of heat dissipation of the electronic components of the circuit board of the internal control device (4) of the window body (1), the present invention utilizes a composite heat dissipation method that combines the heat dissipation of the window body (1) and the convection heat dissipation of the window body (1) to solve the problem. The high temperature problem caused by the electronic components of the board during operation.

In use, as shown in the fourth and fifth figures, in the convection heat dissipation of the window body (1): an inlet (18) is opened mainly by below/above the inner side (14) of the window body (1). The outlet (19) is convectively dissipated so that the cold air in the room enters the window body (1) through the inlet (18) below the support rod (11), flows upward in the first flow passage (16), and passes through The electronic components of the internal circuit board of the window body (1), such as a power transistor (MOSFET), are connected to the control device (4) by heat-dissipating fins (452) for heat exchange, and then discharged by the upper outlet (19). The cold air can be replenished by the inlet (18) below the support rod (11), and the electronic components of the circuit board are continuously exchanged with heat to lower the operating temperature thereof, and both have a cooling effect for the indoors, and thus, the cycle is repeated. In order to achieve the best heat dissipation efficiency.

In the heat conduction of the window body (1): mainly through the higher temperature or less heat-resistant important electronic components on the control device (4) circuit board, please refer to the fifth figure, such as power transistor (MOSFET) Between the window body (1), a heat conducting block (451) is placed, and the heat conducting surfaces on the high/low temperature sides of the heat conducting block (451) are respectively connected to the control device (4) and the inside of the window body (1). The surface is closely attached to conduct heat generated by the electronic component to the window body (1) having a large heat dissipation area by the heat conducting block (451), and convectively dissipate heat with the indoor air through the surface of the window body (1). Take away the heat.

In the aspect of solar radiation heat blocking and heat dissipation, the first opening (151) at the bottom of the outer side surface (15) is utilized, and the outdoor airflow is passed through the first filter screen (152) to enter the second flow channel ( 17), the air flow can be further discharged by the second filter (154) of the second opening (153) at the upper portion, thereby exchanging heat with the hot air in the second flow path (17), so that the window body ( 1) rapid cooling to block the outdoor radiation heat radiated by the sun on the window body (1) and enter the interior of the window body (1), wherein the first filter screen (152) and the second filter screen (154) are utilized. Foreign matter or insects can be blocked from entering the second flow path (17).

This creation department can be a smart solar curtain module structure. Please refer to the seventh, eighth and ninth diagrams. A curtain body (1A) is made of metal, alloy, ceramic, plastic and other materials. Formed by one or more processing methods such as extrusion, sheet metal, injection, sintering, forging, etc., the curtain body (1A) is provided with at least two oppositely disposed support rods (11A), the support rods (11A) A corresponding fixing portion (12A) is disposed, and a glass layer (13A) is fixed between the two fixing portions (12A), and the two supporting rods (11A) are provided with an inner side surface (14A) and an outer side surface. (15A), between the inner side surface (14A) and the outer side surface (15A) of the support rod (11A), a first flow passage (16A) and a second flow passage (17A) are provided between the front side and the rear side partition, and The first flow path (16A) and the second flow path (17A) are not penetrated, wherein the second flow path (17A) is provided with a retaining wall (171A) and is divided into two small flow paths, and The second flow channel (17A) can be additionally filled with a filler (5A), thereby enhancing the radiation heat blocking the outside to enter the room, and then the inner side of the support bar (11A) (14A) At the bottom is provided with an inlet (. 18A) through the first flow path to (16A), and the inner support rod (. 11A) side surface (14A) is provided above the An outlet (19A) is connected to the first flow passage (16A), and a first opening (151A) is disposed below the outer side surface (15A). The first opening (151A) is provided with a first filter screen ( 152A), a second opening (153A) is disposed above the outer side surface (15A), and a second screen (154A) is disposed on the second opening (153A).

A solar photovoltaic module (2A) is attached to the glass layer (13A) of the curtain body (1A).

A power storage device (3A) can be a battery pack disposed in the first flow channel (16A), and the power storage device (3A) is electrically connected to the solar photovoltaic module (2A), thereby The electrical energy generated by the photovoltaic module (2A) is charged and stored.

a control device (4A) is disposed in the first flow channel (16A), the control device (4A) is electrically connected to the solar photovoltaic module (2A) and the power storage device (3A), the control device ( 4A) includes a constant/AC converter circuit module (not shown in the following components, please refer to the third figure), a l/b circuit and voltage regulator circuit module, and a charge/discharge controller circuit. The module and an output power controller circuit module are integrated on the same module, and the direct/AC converter circuit module, the up/down circuit and the voltage stabilization circuit mode are utilized according to the requirements of the use condition. Group, convert or switch it to the AC or DC output of the required voltage for use by various electrical appliances in the building, or switch to the DC voltage of the required voltage, and then pass through the charging/discharging controller module to the power storage device ( 3A) charging; or using the output power controller circuit module to adjust the output power of the solar photovoltaic module (2A) to the maximum, the control device (4A) is further connected to an AC voltage switch (46A) and a DC voltage switch (47A), wherein the AC voltage switch (46A) is respectively provided with a 110VAC socket (461A) and a 220VAC socket (462A), and the DC voltage switch (47A) is respectively There is a series connection box (471A), a parallel junction box (472A) and a DC voltage socket (48A) for use as a serial/parallel connection point between modules or to provide power output for DC appliances. They are respectively disposed on the inner side surface (14A) of the curtain body (1A).

Thus, with the above configuration, it is also fixed at the position of each window on the building for use as a curtain, and achieves the best heat dissipation efficiency.

However, the above description is only one of the embodiments of the present invention. When the scope of the patent application of the present invention is not limited thereto, the simple equivalent changes and substitutions made by the scope of the patent application and the contents of the specification of the present invention are It is still within the scope of the protection covered by the scope of the invention.

(1)‧‧‧Window body

(11)‧‧‧Support rod

(12) ‧‧‧Fixed Department

(13) ‧‧‧ glass layer

(14) ‧‧‧ inside

(15)‧‧‧Outside

(151) ‧ ‧ first opening

(152)‧‧‧First screen

(153) ‧‧‧second opening

(154)‧‧‧Second filter

(16)‧‧‧First runner

(17)‧‧‧Second runner

(18)‧‧‧ Entrance

(181)‧‧‧First fan

(19)‧‧‧Export

(191)‧‧‧second fan

(2) ‧‧‧Solar Photovoltaic Module

(3) ‧ ‧ power storage devices

(4) ‧‧‧Control devices

(41)‧‧‧Direct/AC converter circuit modules

(42)‧‧‧L/L circuit and voltage regulator circuit module

(43)‧‧‧Charge/discharge controller circuit module

(44)‧‧‧Output power controller circuit module

(45)‧‧‧Heat unit

(451) ‧‧‧thermal block

(452)‧‧‧Heat fins

(46)‧‧‧AC voltage switch

(461)‧‧‧110VAC socket

(462)‧‧‧220VAC socket

(47)‧‧‧DC voltage switch

(471)‧‧‧Connected junction box

(472)‧‧‧Connected junction box

(48)‧‧‧DC voltage socket

(1A) ‧‧‧ Curtain Ontology

(11A)‧‧‧Support rod

(12A) ‧ ‧ Fixed Department

(13A) ‧‧‧ glass layer

(14A) ‧‧‧ inside

(15A) ‧ ‧ outer side

(151A) ‧ ‧ first opening

(152A)‧‧‧First screen

(153A) ‧ ‧ second opening

(154A)‧‧‧Second filter

(16A)‧‧‧First runner

(17A)‧‧‧Second runner

(171A) ‧ ‧ retaining wall

(18A)‧‧‧ Entrance

(19A)‧‧‧Export

(2A)‧‧‧Solar Photovoltaic Module

(3A)‧‧‧Power storage devices

(4A)‧‧‧Control device

(46A)‧‧‧AC voltage switch

(461A)‧‧110VAC outlet

(462A)‧‧‧220VAC socket

(47A)‧‧‧DC voltage switch

(471A)‧‧‧Connected junction box

(472A)‧‧‧Connected junction box

(48A)‧‧‧DC voltage socket

(5A) ‧‧‧Filling

(C) ‧ ‧ buildings

(D)‧‧‧Power cord

The first figure is a perspective view of the window body of the present invention.

The second drawing is a combined sectional view of the window body of the present invention.

The third diagram is a configuration diagram of the power storage device and the control device of the present invention.

The fourth figure is a schematic view of the appearance of the control device on the side of the window body of the present invention.

The fifth figure is a schematic structural view of the heat dissipation unit of the present invention.

The sixth figure is a schematic view of the window body of the present invention installed on a building.

The seventh figure is a three-dimensional appearance of the curtain body of the present invention.

The eighth figure is a combined sectional view of the curtain body of the present invention.

The ninth drawing is a schematic view of the appearance of the control device on the inner side of the curtain body of the present invention.

(1)‧‧‧Window body

(11)‧‧‧Support rod

(12) ‧‧‧Fixed Department

(13) ‧‧‧ glass layer

(14) ‧‧‧ inside

(15)‧‧‧Outside

(151) ‧ ‧ first opening

(152)‧‧‧First screen

(153) ‧‧‧second opening

(154)‧‧‧Second filter

(16)‧‧‧First runner

(17)‧‧‧Second runner

(18)‧‧‧ Entrance

(181)‧‧‧First fan

(19)‧‧‧Export

(191)‧‧‧second fan

(2) ‧‧‧Solar Photovoltaic Module

(3) ‧ ‧ power storage devices

(4) ‧‧‧Control devices

(472)‧‧‧Connected junction box

(48)‧‧‧DC voltage socket

Claims (14)

A module structure of a smart solar window, comprising: a window body, which is provided with at least two oppositely disposed support bars, the two support bars are provided with corresponding fixing portions, and a glass is fixed between the two fixing portions a layer, the support rod is provided with an inner side surface and an outer side surface, and the first flow channel and the second flow channel are separated between the inner side surface and the outer side surface of the support rod, and the first flow channel and the second flow channel are The flow channel system is not penetrated, and an inlet is formed at an inner side of the support rod to penetrate the first flow passage, and an outlet is provided at the upper portion to the first flow passage, and a first opening is disposed below the outer side surface. a second opening is disposed above the outer side surface; a solar photovoltaic module is fixed on the glass layer of the window body; a power storage device is disposed in the first flow channel, and the power storage device is electrically The control unit is electrically connected to the solar photovoltaic module and the power storage device, and a heat dissipation unit is disposed on the control device. The control device is electrically connected to the solar energy module and the power storage device. The module structure of the smart solar window according to claim 1, wherein the control device comprises a constant/alternative converter circuit module, a l/b circuit and a voltage regulator circuit module, and a charging device. / discharge controller circuit module, and an output power controller circuit module. The module structure of the smart solar window according to the first aspect of the invention, wherein the first opening is provided with a first screen, and the second opening is provided with a second screen. The module structure of the smart solar window according to claim 1, wherein an inlet is disposed below the inner side surface, a first fan is disposed on the inlet, and an outlet is disposed above the inner side surface. A second fan is disposed on the outlet. The module structure of the smart solar window according to claim 1, 2, 3 or 4, wherein the control device is provided with a DC voltage switching switch and an AC voltage switching switch, and the AC voltage switching switch respectively A 110VAC socket and a 220VAC socket are connected, and the AC voltage switch, the 110VAC socket and the 220VAC socket respectively protrude from the inner side of the window body, and the DC voltage switch is respectively provided with a series connection box and a A junction box for parallel use, as well as a DC socket, is used as a series or parallel connection to provide a DC output. The module structure of the smart solar window according to the first aspect of the invention, wherein the heat dissipating unit of the control device comprises a heat conducting block and a heat dissipating fin. A module structure of a smart solar curtain comprises: a curtain body having at least two oppositely disposed support bars, the two support bars being provided with corresponding fixing portions, and a glass layer fixed between the two fixing portions And the support rod is provided with an inner side surface and an outer side surface, and the first flow channel and the second flow channel are separated between the inner side surface and the outer side surface of the support rod, and the first flow channel and the second flow channel are The trajectory is not penetrated, and an inlet is provided below the inner side of the support rod to the first flow passage, and an outlet is provided at the upper portion to the first flow passage, and a first opening is provided below the outer side surface. a second opening is arranged above the side surface; a solar photovoltaic module is fixed on the glass layer of the curtain body; a power storage device is disposed in the first flow channel, the power storage device is electrically connected to the solar photovoltaic module; a control device The control device is electrically connected to the solar photovoltaic module and the power storage device, and a heat dissipation unit is disposed in the control device. The module structure of the smart solar curtain according to the seventh aspect of the patent application, wherein the control device comprises a constant/AC converter circuit module, a l/b circuit and a voltage regulator circuit module, and a charging device / discharge controller circuit module, and an output power controller circuit module. The module structure of the smart solar curtain according to the seventh aspect of the invention, wherein the first opening is provided with a first screen, and the second opening is provided with a second screen. The module structure of the smart solar curtain according to claim 7, wherein an inlet is disposed below the inner side surface, a first fan is disposed on the inlet, and an outlet is disposed above the inner side surface. A second fan is disposed on the outlet. The module structure of the smart solar curtain according to the seventh, eighth, ninth or tenth aspect of the patent application, wherein the control device is provided with a DC voltage switching switch and an AC voltage switching switch, and the AC voltage switching switch respectively A 110VAC socket and a 220VAC socket are connected, and the AC voltage switch, the 110VAC socket and the 220VAC socket respectively protrude from the inner side of the curtain body, and the DC voltage switch is respectively provided A series connection box, a parallel junction box, and a DC socket are used as a series or parallel connection to provide a power output of the DC device. The module structure of the smart solar curtain according to claim 7, wherein the second flow channel is provided with a retaining wall and is divided into two small flow paths. The module structure of the smart solar curtain according to claim 12, wherein the second flow channel is additionally filled with a filler. The module structure of the smart solar curtain according to the seventh aspect of the invention, wherein the heat dissipating unit of the control device comprises a heat conducting block and a heat dissipating fin.