Heat exchanger and manufacturing method thereof
A heat exchanger which may be continuously mass-produced by press-fitting heat exchange fins into refrigerant tubes and a manufacturing method thereof. The manufacturing method includes processing a metal sheet into a plurality of rows of heat exchange fins, transferring the plurality of rows of heat exchange fins through a transfer apparatus, dividing the plurality of rows of heat exchange fins into heat exchange fins in odd-numbered rows and heat exchange fins in even-numbered rows and integrating the heat exchange fins in odd-numbered rows and even-numbered rows through integration apparatuses, vertically standing and aligning the heat exchange fins in odd-numbered rows and even-numbered rows, separating the heat exchange fins in odd-numbered rows and even-numbered rows into a number of heat exchange fins, which may be simultaneously press-fitted into refrigerant tubes, through separation apparatuses, and press-fitting the separated heat exchange fins into the refrigerant tubes.
1. A manufacturing method of a heat exchanger comprising:
processing a metal sheet into a plurality of rows of heat exchange fins;
transferring the plurality of rows of heat exchange fins through a transfer apparatus;
dividing the plurality of rows of heat exchange fins into heat exchange fins in odd-numbered rows and heat exchange fins in even-numbered rows and integrating the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows through integration apparatuses;
vertically standing and aligning the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows;
separating the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows into a number of heat exchange fins, which may be simultaneously press-fitted into refrigerant tubes, through separation apparatuses; and
press-fitting the separated heat exchange fins into the refrigerant tubes.
2. The manufacturing method according to claim 1 , wherein the pressing of the metal sheet into the plurality of rows of heat exchange fins is performed such that ends of contact ribs of neighboring heat exchange fins are opposite each other.
3. The manufacturing method according to claim 1 , wherein, in the division of the plurality of rows of heat exchange fins into the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows and the integration of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows on the integration apparatuses, the heat exchange fins in odd-numbered rows are integrated on a first integration apparatus and the heat exchange fins in even-numbered rows are integrated on a second integration apparatus.
4. The manufacturing method according to claim 1 , wherein, in the vertically standing and aligning of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows, the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are rotated such that ends of contact ribs face downward.
5. The manufacturing method according to claim 1 , wherein, in the vertically standing and aligning of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows, the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are aligned on integration units by inserting the integration units between neighboring contact ribs of each of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows.
6. The manufacturing method according to claim 5 , wherein, in the vertically standing and aligning of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows, the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are integrated on the integration units by inserting blades between neighboring contact ribs of each of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows.
7. The manufacturing method according to claim 5 , wherein vibration is applied to the integration units, and the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows slide along the integration units by vibration applied to the integration units.
8. The manufacturing method according to claim 4 , further comprising, when the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows vertically stand and are aligned, transferring the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows through a collector and integrating the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows such that neighboring heat exchange fins contact each other.
9. The manufacturing method according to claim 8 , wherein the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are transferred by blades mounted on a belt and moved such that neighboring heat exchange fins contact each other.
10. The manufacturing method according to claim 1 , wherein, in the separation of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows into a number of heat exchange fins, which may be simultaneously press-fitted into the refrigerant tubes, through the separation apparatuses, the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are separated into a number of heat exchange fins, which may be simultaneously press-fitted into the refrigerant tubes, by blades.
11. The manufacturing method according to claim 1 , wherein, in the press-fitting of the separated heat exchange fins into the refrigerant tubes, the separated heat exchange fins are press-fitted into the refrigerant tubes on which headers are mounted.
12. The manufacturing method according to claim 1 , further comprising mounting headers on the refrigerant tubes, after the press-fitting of the separated heat exchange fins into the refrigerant tubes.
13. The manufacturing method according to claim 1 , wherein the processing of the metal sheet into the plurality of rows of heat exchange fins is performed after the metal sheet wound on a roll is unwound into a state, in which pressing of the metal sheet may be performed, by an uncoiler.
14. The manufacturing method according to claim 4 , wherein, in the vertically standing and aligning of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows, the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows are integrated on integration units by inserting wires between neighboring contact ribs of each of the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows.
15. The manufacturing method according to claim 14 , wherein vibration is applied to the wires and the heat exchange fins in odd-numbered rows and the heat exchange fins in even-numbered rows slide on the integration units by vibration applied to the wires.