Enclosure structure provided with directionally-laid power transmission conductors, and laying method

1. A method for laying a power transmission conductor, the power transmission conductor being laid in an enclosure, comprising steps of:

acquiring changing situations of a surface heat transfer coefficient of an outer surface, in contact with a windward side incoming flow, of a shady side of the enclosure according to airflow parameters outside the enclosure;

determining a target laying position according to an inside position, corresponding to a highest surface heat transfer coefficient, of the shady side; and

laying the power transmission conductor at the target laying position.

2. The method for laying the power transmission conductor according to claim 1 , wherein the step of acquiring changing situations of the surface heat transfer coefficient comprises: acquiring corresponding Reynolds numbers according to airflow parameters outside the enclosure, and establishing changing situations of the surface heat transfer coefficient of the outer surface at the shady side at different Reynolds numbers; and

the step of determining the target laying position comprises: determining the target laying position according to inside positions, corresponding to the highest surface heat transfer coefficient at different Reynolds numbers, of the shady side.

3. The method for laying the power transmission conductor according to claim 2 , comprising: recording positions, corresponding to the highest surface heat transfer coefficient at different Reynolds numbers, at the shady side as target laying angles, wherein, the target laying angle is defined as an included angle formed between a normal vector of a contact surface, where the windward side incoming flow comes into contact with an outer wall of the enclosure, and the position corresponding to the highest surface heat transfer coefficient on the enclosure; and

the target laying position is between a minimum target laying angle and a maximum target laying angle at different Reynolds numbers.

4. The method for laying the power transmission conductor according to claim 2 , wherein the changing situations of the surface heat transfer coefficient of the outer surface, in contact with the windward side incoming flow, of the shady side of the enclosure is reflected by a Nusselt number.

5. The method for laying the power transmission conductor according to claim 1 , wherein the shady side is defined as a range from 45 degrees clockwise from due north direction to 45 degrees counterclockwise from the due north direction.

6. The method for laying the power transmission conductor according to claim 1 , wherein the step of acquiring changing situations of the surface heat transfer coefficient comprises: according to a Reynolds number corresponding to a height position of the enclosure, acquiring changing situations of the surface heat transfer coefficient of a circumferential position of the outer surface at the shady side corresponding to the height position;

the inside position is an inside position corresponding to the highest surface heat transfer coefficient of the circumferential position; and

the step of determining the target laying position comprises: taking a vertically extending line corresponding to the inside position as a reference laying line for laying the power transmission conductor; and rotating the reference laying line clockwise or counterclockwise by a predetermined angle according to changes of the Reynolds numbers at different heights of the enclosure, and determining a position of the rotated reference laying line as the target laying position.

7. The method for laying the power transmission conductor according to claim 1 , wherein the step of acquiring changing situations of the surface heat transfer coefficient comprises: selecting one height position at an upper segment of the enclosure and one height position at a lower segment of the enclosure, and according to Reynolds numbers at the two height positions, acquiring changing situations of the surface heat transfer coefficient of circumferential positions of the outer surface at the shady side corresponding to the two height positions;

the inside position comprises inside positions corresponding to the highest surface heat transfer coefficients of the circumferential positions corresponding to the two height positions; and

the step of determining the target laying position comprises: taking a connection line connecting the two inside positions corresponding to the highest surface heat transfer coefficients of the two circumferential positions as the target laying position.

8. The method for laying the power transmission conductor according to claim 1 , wherein the step of acquiring changing situations of the surface heat transfer coefficient comprises: selecting one height position at an upper segment of the enclosure and one height position at a lower segment of the enclosure, and according to Reynolds numbers at the two height positions, acquiring changing situations of the surface heat transfer coefficient of circumferential positions of the outer surface at the shady side corresponding to the two height positions;

the inside position comprises inside positions corresponding to the highest surface heat transfer coefficients of the circumferential positions corresponding to the two height positions; and

the step of determining the target laying position comprises: taking a connection line connecting the two inside positions corresponding to the highest surface heat transfer coefficients of the two circumferential positions as a reference laying line; and rotating the reference laying line by a predetermined angle according to changes of the highest surface heat transfer coefficients of the two circumferential positions, and determining a position of the rotated reference laying line as the target laying position.

9. The method for laying the power transmission conductor according to claim 1 , wherein the windward side incoming flow is an incoming flow in a main wind direction obtained according to a weather wind rose of a location where the enclosure is located.

10. The method for laying the power transmission conductor according to claim 9 , wherein the weather wind rose is selected as a weather wind rose of a high temperature season of the location where the enclosure is located.

11. The method for laying the power transmission conductor according to claim 1 , wherein the power transmission conductor is bent to allow the power transmission conductor to be bent back and forth when being projected onto an inner surface of the enclosure.

12. The method for laying the power transmission conductor according to claim 11 , wherein the electric power transmission conductor is further bent to allow a vertical distance from the power transmission conductor to the inner surface of the enclosure to change alternately.

13. An enclosure having a power transmission conductor laid in an oriented manner, the power transmission conductor being arranged inside the enclosure, wherein the power transmission conductor is laid inside the enclosure with the method according to claim 1 .

14. The enclosure according to claim 13 , wherein an included angle between the target laying position of the power transmission conductor and the windward side incoming flow ranges from 110 degrees to 125 degrees.

15. The enclosure according to claim 14 , wherein the windward side incoming flow comes from a southwest direction or a southeast direction.

16. The enclosure according to claim 13 , wherein the power transmission conductor is laid in a back and forth bending manner when being projected on an inner surface of the enclosure.

17. The enclosure according to claim 16 , wherein a vertical distance from the power transmission conductor to the inner surface of the enclosure changes alternately.

18. The enclosure according to claim 16 , wherein the structure of a unit formed by laying the conductor in the back and forth bending manner is polyline shaped, or trapezoidal, or S-shaped; and the polyline shape is bent directly or has an arc shape at a bent position.

19. The enclosure according to claim 13 , wherein in a circumferential direction of the inner surface of the enclosure, the power transmission conductor as a whole has a radian adapted to the arc-shaped inner surface of the enclosure.

20. The enclosure according to claim 13 , wherein an extending direction of the power transmission conductor from top to bottom is arranged to be inclined with respect to a vertical direction, and is adapted to an inclination angle of the inner surface of the enclosure.

21. The enclosure according to claim 13 , wherein a sunny side of the enclosure is provided with a thermal insulation layer, and/or a shady side of the enclosure is provided with a thermal conduction layer.

22. The enclosure according to claim 21 , wherein the thermal insulation layer comprises an inner surface thermal insulation layer and an outer surface thermal insulation layer of the sunny side, the outer surface thermal insulation layer is configured to have at least one of characteristics of a low infrared absorptivity, a high reflectivity, and a high infrared emissivity; and the inner surface thermal insulation layer is configured to have at least one of characteristics of a low infrared emissivity, a low infrared absorptivity and a low thermal conduction coefficient; and

the thermal conduction layer comprises an inner surface thermal conduction layer and an outer surface thermal conduction layer of the shady side, the outer surface thermal conduction layer is configured to have at least one of characteristics of a high reflectivity and a low infrared absorptivity; and the inner surface thermal conduction layer is configured to have at least one of characteristics of a low reflectivity, a high infrared absorptivity and a high infrared emissivity.

23. The enclosure according to claim 21 , wherein the thermal insulation layer is arranged in a high temperature region at the sunny side, and the high temperature region is determined according to thermal radiation data monitored in summer and is defined as a range from 90 degrees to 100 degrees westward from the due south.

24. The enclosure according to claim 13 , wherein an outer surface of the power transmission conductor is coated with a coating having a high infrared emissivity; and/or, the enclosure is a wind turbine tower.

25. An enclosure having a power transmission conductor laid in an oriented manner, the power transmission conductor being arranged inside the enclosure, wherein the power transmission conductor is laid at a shady side of the enclosure; and a target laying position of the power transmission conductor at the shady side is determined by an inside position, corresponding to a highest surface heat transfer coefficient, at the shady side; and the surface heat transfer coefficient is a surface heat transfer coefficient of an outer surface, in contact with a windward side incoming flow, of the shady side.

26. The enclosure having the power transmission conductor laid in the oriented manner according to claim 25 , wherein the target laying position is inclined with respect to a vertically extending line on the inner side of the shady side, and an angle of inclination is determined by changing situations of Reynolds numbers corresponding to the windward side incoming flow at different heights of the shady side.

27. The enclosure according to claim 25 , wherein an included angle between the target laying position of the power transmission conductor and the windward side incoming flow ranges from 110 degrees to 125 degrees.

28. The enclosure having the power transmission conductor laid in the oriented manner according to claim 25 , wherein the windward side incoming flow is an incoming flow in a main wind direction obtained according to a weather wind rose of a location where the enclosure is located.