TWM517785U - Solar panel module and solar panel apparatus - Google Patents

Abstract

A solar panel apparatus has a first solar panel module. The first solar panel module has a first front surface capable of receiving light, a first back surface, at least a first solar panel having a plurality of first solar cell units electrically connected with each other, and a first anode and a first cathode. The first solar panel module further has a first anode junction box, a first cathode junction box, a first anode auxiliary junction box, a first cathode auxiliary junction box, and a first anode cable and a first cathode cable. The first anode junction box and the first cathode junction box are disposed at one side of the back surface and are electrically connected to the first anode and the first cathode respectively. The first anode auxiliary junction box and the first cathode auxiliary junction box are disposed at the other side of the back surface opposite to the one side. The first anode junction box and the first anode auxiliary junction box are electrically connected through the first anode cable. The first cathode junction box and the first cathode auxiliary junction box are electrically connected through the first cathode cable. No bypass diode is disposed in any one of the first anode junction box, the first cathode junction box, the first anode auxiliary junction box and the first cathode auxiliary junction box.

Description

Solar panel module and solar panel device

The present invention relates to a solar panel module and a combined solar panel device.

In general, in order to achieve a large amount of power generation, the solar panel module contains more than one solar panel. Since different customers have different power generation requirements and installation environments, it is difficult for a single-size solar panel module to respond to different customers. In order to solve this problem, the industry needs a solar panel device that can be easily customized and quickly assembled.

The purpose of the present invention is to provide a solar panel module including a first solar panel module, wherein the first solar panel module includes a first front surface and a first back surface, at least one first solar panel and a first positive electrode and a first negative electrode, the at least one first solar panel comprising a plurality of first solar cells electrically connected to each other. The first solar panel module further includes a first positive junction box and a first negative junction box respectively located on one side of the first back surface and electrically connected to the first positive pole and the first negative pole respectively a first positive auxiliary junction box on the other side of the back side and a first negative auxiliary wiring box, electrically connecting the first positive junction box and a first positive conductive strip of the first positive auxiliary junction box, and the electric First connecting the first negative junction box and the first negative auxiliary junction box Negative electrode strip. The first positive junction box, the first negative junction box, the first positive auxiliary junction box and the first negative auxiliary junction box have no bypass diodes.

In an embodiment of the present invention, the plurality of first solar units are electrically connected in series.

In an embodiment of the present invention, the solar panel module device further includes a first three-way joint and a second three-way joint, and a positive external connection line and a negative external connection line. The first positive external connection line is electrically connected to the first positive junction box and a first end of the first three-way joint, and the negative external connection line is electrically connected to the first negative junction box and the second three-way joint First end.

In an embodiment of the present invention, the solar panel module apparatus further includes a bypass diode electrically coupled to a second end of the first three-way joint and a second end of the second three-way joint.

In an embodiment of the present invention, the solar panel module device further includes a first positive interconnecting wire and an electrical connection electrically connecting the first positive auxiliary junction box and a second positive electrode of the second solar panel module. The first negative auxiliary junction box and a first negative electrode of a second solar panel module are connected to a first negative connection line.

In an embodiment of the present invention, the solar panel module device further includes an nth solar panel module, wherein the nth solar panel module includes a nth front surface and a nth back surface, at least one a solar panel and an nth positive electrode and an nth negative electrode, the at least one nth solar panel comprising a plurality of nth solar cells electrically connected to each other. The nth solar panel module further includes an nth positive junction box and an nth negative junction box on one side of the nth back surface, and an nth positive auxiliary junction box on the other side of the nth back surface. An nth negative auxiliary junction box electrically connecting the nth positive junction box and an nth positive electrode strip of the nth positive auxiliary junction box, and electrically connecting the nth negative junction box and the nth negative auxiliary junction box An nth negative electrode conductive strip. The solar panel module device further includes an nth positive interconnection connecting line electrically connecting the nth positive auxiliary junction box and a positive pole of an (n+1) solar panel module, and electrically connecting the nth negative auxiliary The junction box and an nth negative connection of a negative electrode of the (n+1) solar panel module, wherein n is greater than or equal to 2.

In an embodiment of the present invention, the solar panel module device further includes an (n+1) solar panel module, wherein the (n+1) solar panel module includes a photo-generated power generation (n+1) a front surface and an (n+1)th back surface, at least one (n+1)th solar panel, and an (n+1)th positive electrode and an (n+1)th negative electrode, the at least one (n+1)th The solar panel includes a plurality of (n+1)th solar cells electrically connected to each other. The (n+1) solar panel module further includes an (n+1) positive junction box and an (n+1) negative junction box on one side of the (n+1)th back surface, the first The (n+1) positive electrode and the (n+1)th negative electrode are electrically connected to the (n+1)th positive junction box and the (n+1)th negative junction box, respectively, wherein n is greater than or equal to two.

In one embodiment of the present invention, none of the junction boxes corresponding to the nth and (n+1) solar panel modules have bypass diodes.

In an embodiment of the present invention, the (n+1)th solar panel module includes only the (n+1)th positive junction box and the (n+1)th negative junction box without other junction boxes.

In an embodiment of the present invention, the plurality of solar panel modules between the first solar panel module and the (n+1)th solar panel module are electrically connected in parallel.

The present invention distinguishes the solar panel modules in the solar panel device into the first to nth solar panel modules and the (n+1) solar panel module and standardizes the different types of solar panel modules and their corresponding components. By adjusting the number of n, it is easy to customize the number of solar panel modules in the solar panel device and quickly assemble the desired solar panel device.

10‧‧‧Solar unit

10a‧‧‧Solar unit

10b‧‧‧Solar unit

100‧‧‧ solar panels

100’‧‧‧ solar panels

100n‧‧‧ solar panel module

100n*‧‧‧ solar panel module

101‧‧‧ positive

102‧‧‧Back

111a‧‧‧Front negative wiring

112a‧‧‧Back negative wiring

121b‧‧‧ positive positive wiring

122b‧‧‧Back positive wiring

130‧‧‧ Backplane

140‧‧‧ cover

14n1*‧‧‧negative strip

14n2*‧‧‧positive conductive strip

15n1*‧‧‧native junction box

15n2*‧‧‧nth positive junction box

15n3*‧‧‧Negative auxiliary junction box

15n4*‧‧‧ positive auxiliary junction box

160‧‧‧Border

1000‧‧‧Solar panel assembly

1411‧‧‧First negative conductive strip

1412‧‧‧First positive conducting strip

1421‧‧‧Second negative conductive strip

1422‧‧‧Second positive strip

14n1‧‧‧Negative Conductive Strip / nth Negative Conductor Strip

14n2‧‧‧positive conductive strip / nth positive conductive strip

1511‧‧‧First negative junction box

1512‧‧‧First positive junction box

1513‧‧‧First negative auxiliary junction box

1514‧‧‧First positive auxiliary junction box

1521‧‧‧Second negative junction box

1522‧‧‧Second positive junction box

1523‧‧‧Second negative auxiliary junction box

1524‧‧‧Second positive auxiliary junction box

1531‧‧‧ Third negative junction box

1532‧‧‧ Third positive junction box

15n1‧‧‧Negative junction box / nth negative junction box

15n2‧‧‧Actual junction box / nth positive junction box

15n3‧‧‧Negative auxiliary junction box / nth negative auxiliary junction box

15n4‧‧‧ positive auxiliary junction box / nth positive auxiliary junction box

15(n+1)1‧‧‧(n+1) negative junction box

15(n+1)2‧‧‧(n+1) positive junction box

BD‧‧‧ Bypass diode

Ex‧‧‧External devices

M1‧‧‧First Solar Panel Module

M2‧‧‧Second solar panel module

M3‧‧‧ third solar panel module

Mn‧‧‧n n solar panel module

M(n+1)‧‧‧(n+1) solar panel module

T1‧‧‧ first three-way joint

T2‧‧‧ second three-way joint

1 shows a solar panel in accordance with an embodiment of the present invention.

2 shows a top view of the back side of a solar panel module in accordance with an embodiment of the present invention.

3 shows a top back view of a solar panel module in accordance with another embodiment of the present invention.

4 shows a solar panel apparatus in accordance with an embodiment of the present invention.

The preferred embodiments of the present invention will be described in detail below, and the components, component parts, structures, materials, configurations, and the like described herein may be arbitrarily combined into new embodiments without the order of the description or the embodiments. These embodiments are within the scope of the present invention.

In order to avoid confusion, similar elements are denoted by the same or similar reference numerals; in order to avoid excessive complexity and confusion of the picture, repeated elements are only marked with one place, and so on. .

Reference is now made to Fig. 1, which shows a solar panel 100 in accordance with an embodiment of the present invention. The solar panel 100 has a front surface 101 such as a light-receiving power generation side and a back surface 102 such as a backlight side and includes a plurality of solar cell units 10a, 10b and 10 electrically connected in series to each other, wherein 10a and 10b represent solar panels 100. The units at both ends and 10 represent the unit located between them. The solar panel 100 preferably has a rectangular shape and has a long side and a short side. On both sides of the front side 101 of the solar panel 100, a front positive electrode wiring 121b and a front negative electrode wiring 111a are provided, respectively, and the front positive electrode wiring 121b and the front negative electrode are respectively provided. The wiring 111a is folded back to the back surface 102 of the solar panel 100 to become the back surface positive wiring 122b and the back surface negative wiring 112a. In this illustration, the back positive electrode wiring 122b and the back surface negative wiring 112a are shown by broken lines to be different from the front wiring. The front positive electrode wiring 121b is a positive electrode of the solar panel 100, and the front negative electrode wiring 111a is a negative electrode of the solar panel 100. The front positive electrode wiring 121b and the front negative electrode wiring 111a may be folded back from both ends of the same short side of the solar panel 100 as shown in FIG. 1, or may be folded back (not shown) from the end points of the different short sides of the solar panel 100. The wiring may be composed of, for example, a copper foil or a copper ribbon, or may be composed of other metal or alloy wires.

Although not shown in FIG. 1, each solar panel in the present invention, such as solar panel 100, may have a back glass, a patterned lower electrode layer, a patterned photoelectric conversion layer, and a selective pattern from bottom to top. A patterned stacked structure of a patterned buffer layer and a patterned transparent upper electrode layer. The lower electrode layer and the transparent upper electrode layer are used to transmit current generated by the photoelectric conversion layer. The photoelectric conversion layer is configured to absorb light passing through the transparent upper electrode layer and the selective buffer layer and convert it into a current, and the photoelectric conversion layer may comprise copper (Cu), indium (In), gallium (Ga) and selenium. a semiconductor material composed of (Se), or may comprise a group Ib element such as copper (Cu) or silver (Ag), a group IIIb element such as aluminum (Al), gallium (Ga) or indium (In) and a VIb element such as sulfur A compound semiconductor material composed of (S), selenium (Se) or tellurium (Te). The transparent upper electrode layer is, for example, indium tin oxide (ITO) and/or zinc oxide layer (ZnO), and the lower electrode layer is, for example, molybdenum (Mo).

Referring next to Figure 2, there is shown a rear elevational view of a solar panel module 100n in accordance with an embodiment of the present invention. The solar panel module 100n includes only one solar panel 100, a back panel 130 that is slightly larger than the solar panel 100 and located at the back surface 102 of the solar panel, and has a size equal to or slightly smaller than the back panel 130 and located at the front side 101 of the solar panel. A cover plate 140, a frame 160 located on the outer edge of the solar panel 100 and engaging the back plate 130 and the cover plate. The cover plate 140 is typically a glass plate. The backing plate 130 can be a soft flexible layer or a non-flexible hard board. The frame 160 may be a structure in which a plurality of sub-structures are spliced, and the rubber material or the packaging material is closely bonded to the cover plate, the back plate and/or the solar panel. In addition, the solar panel module 100n further includes a back surface positive electrode wiring 122b and a back surface negative electrode wiring 112a, a negative electrode conductive strip 14n1 and a positive electrode conductive strip 14n2, and a negative electrode terminal block 15n1 and a positive electrode wiring which are reversely folded from the front surface of the solar panel 100 to the back surface. The cassette 15n2 and the negative auxiliary junction box 15n3 and the positive auxiliary junction box 15n4. The negative electrode junction box 15n1 and the positive electrode junction box 15n2 are located adjacent to and connected to one side of the back surface negative electrode wiring 112a and the back surface positive electrode wiring 122b. The negative electrode auxiliary junction box 15n3 and the positive electrode auxiliary junction box 15n4 are located away from the other side of the wiring and are electrically connected to the positive electrode junction box 15n2 by the negative electrode bus bar 14n1 and the positive electrode bus bar 14n2 and the negative electrode terminal block 15n1, respectively. The negative junction box 15n1 and the positive junction box 15n2 can be electrically connected to an external device such as an electrical energy storage device, a power consuming appliance, etc., and the negative auxiliary junction box 15n3 and the positive auxiliary junction box 15n4 can be electrically connected to the next solar panel module.

Referring next to FIG. 3, FIG. 3 shows a rear top view of a solar panel module 100n* in accordance with another embodiment of the present invention. The solar panel module 100n* includes three solar panels (100, 100', 100), a back panel 130 that is slightly larger than the three solar panels 100 and located at the back surface 102 of the solar panel, and has a size equal to or slightly smaller than the back panel 130. A cover plate 140 located at the front side 101 of the solar panel, a frame 160 located at the outer edge of the solar panel 100 and engaging the back panel 130 and the cover panel. The solar panels 100 and 100' are substantially identical except for the position where the wiring is pulled out. The cover plate 140, the back plate 130 and the frame 160 are similar to the cover plate 140, the back plate 130 and the frame 160 described in FIG. 2 and will not be described again. In addition, the solar panel module 100n* further includes a back positive electrode wiring 122b and a back negative wiring 112a which are folded back from the front surface of the solar panel 100 to the back surface, and a back positive wiring 122b which is folded back from the front surface of the solar panel 100' to the back surface. 'With the back negative wiring 112a', the negative conductive strip 14n1* and the positive conductive strip 14n2*, the negative junction box 15n1* and the positive junction box 15n2*, and the negative auxiliary junction box 15n3* and the positive auxiliary junction box 15n4*. The negative junction box 15n1* and the positive junction box 15n2* are located at the first solar panel and the negative auxiliary junction box 15n3* and the positive auxiliary junction box 15n4* are located at the last (ie, the third) solar panel. The negative conductive strip 14n1* and the positive conductive strip 14n2* are located between the negative junction box 15n1* and the positive junction box 15n2* and the negative auxiliary junction box 15n3* and the positive auxiliary junction box 15n4* and span all the solar panels 100 and 100 '. The positive electrode bus bar 14n2* is connected in series with the positive electrode terminal block 15n2*, the back surface positive electrode wiring 122b/122b' of all the solar panels 100/100', and the positive electrode auxiliary junction box 15n4*. The negative electrode conductive strip 14n1* is connected in series with the negative electrode junction box 15n1*, the rear negative electrode wiring 112a/112a' of all the solar panels 100/100', and the negative electrode auxiliary junction box 15n3*. Similarly, the negative junction box 15n1* and the positive junction box 15n2* can be electrically connected to an external device such as an electrical energy storage device, a power consuming appliance, etc., and the negative auxiliary junction box 15n3* and the positive auxiliary junction box 15n4* can be combined with the next solar panel. Group electrical connection.

Although the solar panel module is equipped with three solar panels in the embodiment of FIG. 3, it should be understood that the solar panel module according to the novel teachings may include three or more solar panels, a negative junction box and a positive junction box, and a negative auxiliary. Junction box and positive auxiliary junction box, and negative connection between the two A pole strip and a positive strip. Further, in the above embodiment, the junction box is located at the back of the solar panel, but it should be understood that one, more, or all of the junction boxes may be disposed at the side or front of the solar panel.

Referring next to Figure 4, there is shown a solar panel apparatus 1000 in accordance with an embodiment of the present invention. The solar panel device 1000 includes at least two solar panel modules electrically connected to each other, for example, a plurality of solar panel modules electrically connected to each other: a first solar panel module M1 (may be a solar panel module 100n, or a diagram shown in FIG. 2) 3) solar panel module 100n*, or other solar panel module conforming to the spirit of the present invention), selective intermediate solar panel module M2 to intermediate solar panel module Mn, and final solar panel module M (n+1), where n is an integer. As shown in FIG. 1 , whether it is the first, middle or last solar panel module, the solar panels in each solar panel module comprise a front side and a back side of the photovoltaic power generation, electrically connected to each other, especially in series. A plurality of solar cells electrically connected, and a positive electrode and a negative electrode. When n is equal to 1, the solar panel device 1000 has only the first solar panel module M1 and the last solar panel module M2 without any intermediate solar panels, but when n is greater than 1, for example, equal to 2, 3, 4, etc. The device 1000 has at least one intermediate solar panel module Mn in addition to the first solar panel module M1 and the last solar panel module M(n+1). Regardless of the size of n, in all cases, the components at the first solar panel module M1 are the same. Similarly, in all cases, the final solar panel modules are identical. In the case where n is greater than 1, the intermediate solar panel modules are the same regardless of the size of n. Therefore, if the customer needs a solar panel device with eight solar panel modules, we can simply assemble the first solar panel module, the six identical intermediate solar panel modules, and the last solar panel module. Complete customer needs. In addition, the solar panel module and its corresponding components can be pre-assembled into a sub-module for emergency use, which can further accelerate the assembly speed. It should be understood that the first solar panel module and the nth solar panel module may be the same module, for example, the module shown in FIG. 2 or FIG. 3, which is classified in the present case based on the first solar energy. The characteristics of the board module that can be connected externally.

The first solar panel module M1 of the solar panel module device 1000 may include a first positive junction box 1512 and a first negative junction box 1511 on one side of the first back surface on the other side of the first back surface. a first positive auxiliary junction box 1514 and a first negative auxiliary junction box 1513, wherein the other side and the one side of each other are electrically connected to the first positive junction box 1512 and the first positive auxiliary junction box 1514 A first positive conductive strip 1412 is electrically connected to the first negative junction box 1511 and a first negative conductive strip 1411 of the first negative auxiliary junction box 1513. The first positive electrode conductive strip 1412 and the first negative electrode conductive strip 1411 are, for example, busbars. The first positive junction box 1512 and the first negative junction box 1511 are electrically connected to the first positive electrode of the first solar panel module M1 and the first negative electrode (not shown), respectively. The first positive junction box 1512, the first negative junction box 1511, the first positive auxiliary junction box 1514 and the first negative auxiliary junction box 1513 have no bypass diodes. The solar panel module device 1000 may further include a first positive interconnecting line (not labeled) for electrically connecting the first solar panel module M1 and the next solar panel module M2 at the first solar panel module M1. And a first negative connection line (not labeled), specifically, the first positive connection line is electrically connected to the first positive auxiliary junction box 1514 of the first solar panel module M1 and a second solar panel module M2 a second positive electrode is passed through the second positive junction box 1522 of the second solar panel module M2; the first negative internal connection cable is electrically connected to the first negative auxiliary junction box 1513 and the second solar panel module M2 The second negative electrode passes through the second negative junction box 1521 of the second solar panel module M2. It should be understood that although the first positive interconnecting line and the first negative interconnecting connecting line are respectively illustrated as a single line in FIG. 2, each interconnecting connecting line may include two or more connecting lines, such as an interconnecting connecting line. A connection line having a male connector connected to the first positive auxiliary junction box 1514 of the first solar panel module M1 and a female connector connected from the first positive junction box 1522 of the second solar panel module M2 may be included. The connecting wire and the male connector of the two connecting wires are connected to the female connector.

If the solar panel module device 1000 includes one or more of the intermediate solar panel modules M2 to Mn, since all the intermediate solar panel modules are the same, the intermediate solar panel module M2 is taken as an example; The number n can be used to obtain the components of the intermediate solar panel module Mn, which will be marked later in In parentheses. The middle solar panel module M2 of the solar panel module device 1000 includes a second positive junction box 1522 (15n2) on one side of the second back surface and a first negative junction box 1521 (15n1) on the second back surface. a second positive auxiliary junction box 1524 (15n4) on the other side of the (nth back) and a second negative auxiliary junction box 1523 (15n3), wherein the other side and the one side are opposite to each other and electrically connected to the first The second positive junction box 1522 (15n2) and the second positive pole conductive strip 1422 (14n2) of the second positive auxiliary junction box 1524 (15n4) are electrically connected to the second negative junction box 1521 (15n1) and the second negative pole A second negative conductive strip 1421 (14n1) of the auxiliary junction box 1523 (15n3). The second positive electrode strip 1422 (14n2) and the second negative electrode strip 1421 (14n1) are, for example, busbars. The second positive junction box 1522 (15n2) and the second negative junction box 1521 (15n1) are respectively connected to the second positive electrode (nth positive electrode) and the second second solar panel module M2 (nth solar panel) The negative electrode (nth negative electrode) is electrically connected. The solar panel module device 1000 at the intermediate solar panel module M2 (Mn) may further include an electrical connection between the second solar panel module M2 (Mn) and the next solar panel module M3 (M (n+1) a second positive internal connection line (not labeled) (nth positive internal connection line) and a second negative internal connection line (not labeled) (nth negative internal connection line), specifically, the first positive electrode The inner connecting cable (the nth positive interconnecting line) electrically connects the second positive auxiliary junction box 1524 (15n4) of the second solar panel module M2 (Mn) with a third solar panel module M3 (M(n+1) a third positive electrode (the (n+1)th positive electrode) is passed through the third positive electrode junction box 1532 of the third solar panel module M3 (M(n+1)) (the (n+1)th positive junction box 15 (n+1)2), the second negative internal connection line (nth negative internal connection line) is electrically connected to the second negative auxiliary junction box 1523 (15n3) and the third solar panel module M3 (M(n+1) a third negative electrode (the (n+1)th negative electrode) such as the third negative junction box 1531 (the (n+1) negative junction box through the third solar panel module M3 (M(n+1)) 15(n+1)1). The positive external connection line and the negative external connection line are similar to the first positive internal connection line and the first negative internal connection line, which are illustrated as a single line in FIG. 2 but may include two or more Male or female connector cable.

The solar panel module device 1000 further includes a final solar panel module M(n+1), taking n equal to 2 as an example, and the last solar panel module M(n+1) is M3; For the number n you can get The components at the last solar panel module M(n+1) are marked with parentheses in the following text. The last solar panel module M3 (M(n+1)) of the solar panel module device 1000 may include a third positive junction box 1532 on one side of the third back surface (the (n+1)th back surface) ( 15(n+1)2) and a third negative junction box 1531 (15(n+1)1). The third positive junction box 1532 (15(n+1)2) and the third negative junction box 1531 (15(n+1)1) are respectively associated with the third solar panel module M3 (M(n+1) The third positive electrode (n+1th positive electrode) is electrically connected to the third negative electrode (n+1th negative electrode). The third solar panel module M3 (Pn+1) is in addition to the third positive junction box 1532 (15(n+1)2) and the third negative junction box 1531 (15(n+1)1). There are no other corresponding junction boxes.

In addition to the above-mentioned components of the solar panel and the respective solar panels, in order to enhance the reliability of the solar panel module, the solar panel module device 1000 may further include a first three-way joint T1 and a second three-direction. The joint T2 is electrically connected to the first positive junction box 1512 of the first solar panel module M1 and a positive external connection line (not labeled) of a first end of the first three-way joint T1, and electrically connected to the first solar panel a first negative terminal block 1511 of the group M1 and a negative terminal connecting wire (not labeled) of a first end of the second three-way joint T2 and an electrical coupling such as directly connecting a second end of the first three-way joint T1 a bypass diode BD with a second end of the second three-way joint T2. A third end of the first three-way joint T1 and a third end of the second three-way joint T2 are connected to an external device Ex such as an electrical energy storage device, a power consumption appliance, or the like. The positive external connection line and the negative external connection line are similar to the first positive internal connection line and the first negative internal connection line, which are illustrated as a single line in FIG. 2 but may include two or more Male or female connector cable. The bypass diode BD can be directly connected to the end of the three-way joint or selectively in a junction box, the purpose of which is to prevent the solar panel (the solar unit in the solar panel) from being locally overheated or even collapsed due to uneven light reception. In addition to providing a bypass diode BD outside the first solar panel, additional bypass diodes may be provided at some or all of the intermediate solar panels, such as their junction boxes, if desired.

In the embodiment of FIG. 4, the plurality of solar panel modules between the first solar panel module and the (n+1)th solar panel module are electrically connected in parallel. However, it should be understood that the present invention is not limited to this. If there is a need for series electrical connection, the components in each solar panel module (ie various junction boxes, connecting wires, conductive strips, etc.) and/or the orientation of the solar panel module can be changed (the positive and negative poles are pulled out). The position, the arrangement position of the above components, etc.) and electrically connected to the plurality of solar panel modules in series. Further, the connecting wire according to the present invention is not limited to a specific specification or aspect as long as it has a function of electrical coupling, and may be, for example, a waterproof connecting wire conforming to the MC4 standard.

Although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the present invention, and the present invention may be modified and retouched without departing from the spirit and scope of the present invention. The scope of protection is subject to the definition of the scope of the patent application.

100‧‧‧ solar panels

100n‧‧‧ solar panel module

112a‧‧‧Back negative wiring

122b‧‧‧Back positive wiring

130‧‧‧ Backplane

140‧‧‧ cover

14n1‧‧‧Negative Conductive Strip

14n2‧‧‧positive conductive strip

15n1‧‧‧Negative junction box

15n2‧‧‧ positive junction box

15n3‧‧‧Negative auxiliary junction box

15n4‧‧‧ positive auxiliary junction box

160‧‧‧Border

Claims (10)

A solar panel device comprising: a first solar panel module comprising: a first front surface and a first back surface, at least one first solar panel, and a first positive electrode and a first negative electrode, the at least one A solar panel comprises a plurality of first solar units electrically connected to each other, the first solar panel module further comprising: a first positive junction box and a first negative junction box, located on one side of the first back surface and respectively electrically Connecting to the first positive electrode and the first negative electrode; a first positive auxiliary junction box and a first negative auxiliary junction box on the other side of the first back surface, the other side and the one side facing each other; a first positive electrode strip electrically connected to the first positive electrode junction box and the first positive electrode auxiliary junction box; and a first negative electrode conductive strip electrically connected to the first negative electrode junction box and the first negative electrode auxiliary junction box, The first positive junction box, the first negative junction box, the first positive auxiliary junction box and the first negative auxiliary junction box have no bypass diodes. The solar panel device of claim 1, wherein the plurality of first solar cells are electrically connected in series. The solar panel device of claim 1, further comprising: a first three-way connector and a second three-way connector; and a positive external connection cable and a negative external connection cable, the first positive external connection cable Connecting the first positive junction box to a first end of the first three-way joint, the negative external connection line electrically connecting the first negative junction box and a first end of the second three-way joint. For example, the solar panel device of the third application patent scope includes: a bypass diode electrically coupled to a second end of the first three-way joint and a second end of the second three-way joint. The solar panel device of claim 2, further comprising: a first positive internal connection line and a first negative internal connection line, the first positive internal connection line electrically connecting the first positive auxiliary junction box and a first A second positive electrode of the second solar panel module is electrically connected to the first negative electrode auxiliary junction box and a second negative electrode of the second solar panel module. The solar panel device of claim 5, further comprising: an nth solar panel module comprising a nth front surface and an nth back surface, at least one nth solar panel and an nth positive electrode and a photonic power generation The nth negative electrode, the at least one nth solar panel comprises a plurality of nth solar cells electrically connected to each other, the nth solar panel further comprising: an nth positive junction box and an nth negative junction box, located at the nth a side of the back side; an nth positive auxiliary junction box and an nth negative auxiliary junction box on the other side of the nth back side, the other side and the side are opposite to each other; and an nth positive electrode strip and a An nth negative electrode conductive strip electrically connecting the nth positive terminal block and the nth positive auxiliary junction box, the nth negative conductive strip electrically connecting the nth negative junction box and the nth negative auxiliary wiring The box, wherein the solar panel module device further comprises: an nth positive interconnecting line and an nth negative interconnecting line, the nth positive interconnecting connecting line electrically connecting the nth positive auxiliary junction box and a first (n+ 1) a positive pole of the solar panel module, the nth negative interconnect The connecting wire is electrically connected to the negative electrode of the nth negative auxiliary junction box and a negative electrode of the (n+1) solar panel module, wherein n is greater than or equal to 2. For example, the solar panel device of claim 6 of the patent scope further includes: The (n+1) solar panel module includes a (n+1) front surface and an (n+1)th back surface, at least one (n+1) solar panel and a first (n+) of the light-receiving power generation. 1) a positive electrode and an (n+1)th negative electrode, the at least one (n+1)th solar panel comprising a plurality of (n+1) solar cells electrically connected to each other, the (n+1) solar panel The method further includes: an (n+1)th positive junction box and an (n+1)th negative junction box on a side of the (n+1)th back surface, wherein the (n+1)th positive electrode and the first The (n+1) negative electrode is electrically connected to the (n+1)th positive junction box and the (n+1)th negative junction box, respectively, wherein n is greater than or equal to two. For example, in the solar panel device of claim 7, wherein all of the junction boxes corresponding to the nth and (n+1) solar panel modules have no bypass diodes. The solar panel apparatus of claim 7, wherein the (n+1)th solar panel module includes only the (n+1)th positive junction box and the (n+1)th negative junction box, and no other Junction Box. The solar panel device of claim 9, wherein the plurality of solar panel modules between the first solar panel module and the (n+1)th solar panel module are electrically connected in parallel.