Solar cell module

1. A solar cell module comprising:

a plurality of first conductive lines connected to a first electrode of a first solar cell and extended in a first direction;

a plurality of second conductive lines connected to a second electrode of a second solar cell adjacent with the first solar cell and extended in the first direction; and

an intercell connector spaced apart from the first solar cell and the second solar cell and extended in a second direction crossing the first direction, the intercell connector including a first connection portion connected with the plurality of first conductive lines and a second connection portion connected with the plurality of second conductive lines;

wherein a separation distance between the first solar cell and the first connection portion is closer than a separation distance between the second solar cell and a part of the intercell connector positioned on the same line as the first connection portion, and

a separation distance between the second solar cell and the second connection portion is closer than a separation distance between the first solar cell and an another part of the intercell connector positioned on the same line as the second connection portion.

2. The solar cell module of claim 1 , wherein the plurality of first conductive lines are connected to the first electrode at crossings between the first electrode and the plurality of first conductive lines through a plurality of first conductive adhesive layers, and

the plurality of second conductive lines are connected to the second electrode at crossings between the second electrode and the plurality of second conductive lines through the plurality of first conductive adhesive layers.

3. The solar cell module of claim 1 , wherein a planar shape of the intercell connector has an asymmetric shape based on a central line of the intercell connector parallel to the second direction.

4. The solar cell module of claim 3 , wherein the first connection portion and the second connection portion are alternately positioned on the intercell connector along the second direction.

5. The solar cell module of claim 4 , wherein the planar shape of the intercell connector has at least one of a slit, a hole, a protrusion, a depression, or a zigzag shape, each of which is formed asymmetrically based on the central line.

6. The solar cell module of claim 5 , wherein the planar shape of the intercell connector has the zigzag shape, and

wherein the zigzag shape of the intercell connector is configured such that one side of the intercell connector protrudes based on the central line and the other side is depressed based on the central line when viewed from a plane of the intercell connector.

7. The solar cell module of claim 6 , wherein a first side of the intercell connector of the zigzag shape next to the first solar cell in the first connection portion protrudes toward the first solar cell, and a second side of the intercell connector next to the second solar cell is depressed toward the central line, and

wherein the second side of the intercell connector in the second connection portion protrudes toward the second solar cell, and the first side of the intercell connector is depressed toward the central line.

8. The solar cell module of claim 5 , wherein the planar shape of the intercell connector has at least one of the protrusion and the depression which is formed asymmetrically based on the central line,

wherein the protrusion is formed on a first side of the intercell connector in the first connection portion, and the protrusion is not formed or the depression is formed on a second side of the intercell connector corresponding to the first connection portion, and

wherein the protrusion is formed on the second side of the intercell connector in the second connection portion, and the protrusion is not formed or the depression is formed on the first side of the intercell connector corresponding to the second connection portion.

9. The solar cell module of claim 5 , wherein the planar shape of the intercell connector has the depression which is formed asymmetrically based on the central line,

wherein the depression is formed on a second side of the intercell connector corresponding to the first connection portion, and the depression is not formed on a first side symmetric with the second side, and

wherein the depression is formed on the first side of the intercell connector corresponding to the second connection portion, and the depression is not formed on the second side.

10. The solar cell module of claim 5 , wherein the planar shape of the intercell connector has the slit or the hole which is formed asymmetrically based on the central line,

wherein the slit or the hole is formed in a portion adjacent to a first side of the intercell connector based on the central line in the first connection portion and is not formed in a portion adjacent to a second side of the intercell connector based on the central line, and

wherein the slit or the hole is formed in a portion adjacent to the second side of the intercell connector based on the central line in the second connection portion and is not be formed in a portion adjacent to the first side of the intercell connector based on the central line.

11. The solar cell module of claim 1 , wherein the semiconductor substrate of each of the first solar cell and the second solar cell is doped with impurities of a first conductive type,

wherein the first electrode is positioned on the back surface of the semiconductor substrate and are connected to an emitter region, that is doped with impurities of a second conductive type opposite the first conductive type, and

wherein the second electrode is positioned on the back surface of the semiconductor substrate and are connected to a back surface field region, that is more heavily doped than the semiconductor substrate with impurities of the first conductive type.