SOLAR CELL MODULE COMPRISING PEROVSKITE SOLAR CELL AND MANUFACTURING METHOD THEREOF

1 . A solar cell module, comprising:

a solar cell comprising a perovskite solar cell;

a first encapsulating material and a second encapsulating material that seal the solar cell;

a first protective member disposed on the first encapsulating material;

a second protective member disposed on the second encapsulating material; and

a third encapsulating material disposed on lateral surfaces of the first encapsulating material and the second encapsulating material, the third encapsulating material being disposed between the first protective member and the second protective member,

wherein a water vapor transmission rate (WVTR) of the third encapsulating material is less than a WVTR of the second encapsulating material, and the WVTR of the second encapsulating material is less than a WVTR of the first encapsulating material.

2 . (canceled)

3 . The solar cell module of claim 1 , wherein the first encapsulating material comprises ethylene-vinyl acetate copolymer (EVA) resin, and the second encapsulating material comprises olefin-based resin.

4 - 5 . (canceled)

6 . The solar cell module of claim 1 , wherein the second protective member includes at least one of Tedlar/polyethylene terephthalate/Tedlar (TPT), glass, metal, or a poly vinylidene fluoride (PVDF) resin layer.

7 . The solar cell module of claim 1 , wherein the third encapsulating material includes butyl rubber.

8 . The solar cell module of claim 1 , further comprising:

a frame disposed at an edge of the solar cell module; and

an edge sealant disposed between the frame and the third encapsulating material.

9 . The solar cell module of claim 1 , further comprising a frame that covers portions of the first protective member, the second protective member, and the third encapsulating material.

10 . The solar cell module of claim 9 , wherein a width of the frame in a first direction parallel to a flat surface of the solar cell is greater than a width of the third encapsulating material in the first direction.

11 . A manufacturing method of a solar cell module including a plurality of solar cells, the manufacturing method comprising:

aligning a plurality of interconnectors along a lengthwise direction on an electrode of each of the plurality of solar cells, each of the plurality of solar cells including a perovskite layer;

fixing the plurality of interconnectors on the plurality of solar cells;

based on fixing the plurality of interconnectors on the plurality of solar cells, arranging the plurality of solar cells in a string to form a solar cell string including the plurality of solar cells;

arranging the solar cell string between encapsulating materials; and

based on arranging the solar cell string between the encapsulating materials, placing the solar cell string in a laminator at 150° C. or lower to electrically bond the plurality of interconnectors to the plurality of solar cells.

12 . The manufacturing method of claim 11 , wherein fixing the plurality of interconnectors comprises attaching a fixation tape to the plurality of interconnectors in a direction across the lengthwise direction.

13 . The manufacturing method of claim 11 , wherein fixing the plurality of interconnectors comprises fixing the plurality of interconnectors using an electro-conductive adhesive that is disposed between the electrode and each of the plurality of interconnectors.

14 - 16 . (canceled)

17 . A solar cell module, comprising;

a plurality of solar cells, each of the plurality of solar cells including a perovskite layer, a first electrode, and a second electrode;

a plurality of interconnectors configured to electrically connect the first electrode of a first solar cell among the plurality of solar cells and the second electrode of a second solar cell among the plurality of solar cells, wherein the first and second solar cells are disposed adjacent to each other; and

an electro-conductive adhesive layer disposed between each of the plurality of interconnectors and each of the first electrode of the first solar cell and the second electrode of the second solar cell.

18 . A solar cell module, comprising:

a plurality of solar cells, each of the plurality of solar cell including a perovskite layer, a first electrode and a second electrode;

a plurality of interconnectors configured to electrically connect the first electrode of a first solar cell among the plurality of solar cells and the second electrode of a second solar cell among the plurality of solar cells, wherein the first and second solar cells are disposed adjacent to each other; and

a fixation tape layer attached to the plurality of interconnectors and arranged in a direction across the plurality of interconnectors.

19 . The solar cell module of claim 17 , wherein a length of the electro-conductive adhesive layer in a lengthwise direction of the plurality of interconnectors is 1 to 25% of an entire length of one interconnector of the plurality of interconnectors in the lengthwise direction.

20 . The solar cell module of claim 17 , wherein the electro-conductive adhesive layer comprises a plurality of electro-conductive adhesive parts that are spaced apart from one another and arranged along a lengthwise direction of the plurality of interconnectors, and

wherein the solar cell module further comprises a eutectic mixture that is disposed between the plurality of electro-conductive adhesive parts.

21 . The solar cell module of claim 17 , wherein the electro-conductive adhesive layer extends along a lengthwise direction of the plurality of interconnectors.

22 . The solar cell module of claim 17 , wherein a width of the electro-conductive adhesive layer is less than a width of each of the first electrode and the second electrode.

23 - 24 . (canceled)

25 . A manufacturing method of a solar cell module including a lower solar cell and an upper solar cell, the manufacturing method comprising:

disposing lower-solar-cell unit layers of the lower solar cell on a substrate;

disposing an intermediate layer on the lower solar cell;

disposing upper-solar-cell unit layers of the upper solar cell on the intermediate layer, the upper-solar-cell unit layers including a perovskite absorbing layer; and

dividing the substrate into a plurality of mini-cells based on disposing one or more of the upper-solar-cell unit layers on the intermediate layer.

26 . The manufacturing method of claim 25 , wherein the upper-solar-cell unit layers further include an electrode transporting layer and a hole transporting layer, and

wherein dividing the substrate is performed based on disposing the electrode transporting layer, the perovskite absorbing layer, and the hole transporting layer on the intermediate layer.

27 . A manufacturing method of a solar cell module including a lower solar cell and an upper solar cell, the manufacturing method comprising:

disposing lower-solar-cell unit layers of the lower solar cell on a substrate;

disposing an intermediate layer on the lower solar cell;

disposing upper-solar-cell unit layers of the upper solar cell on the intermediate layer, the upper-solar-cell unit layers including a perovskite absorbing layer;

dividing the substrate into a plurality of mini-cells based on disposing one or more of the upper-solar-cell unit layers; and

forming a mask on the one or more of the upper-solar-cell unit layers, the mask being positioned between the plurality of mini-cells.

28 . The manufacturing method of claim 27 , wherein the upper-solar-cell unit layers further include an electrode transporting layer and a hole transporting layer, and

wherein forming the mask is performed based on disposing the electrode transporting layer, the perovskite absorbing layer, and the hole transporting layer.