Abstract: The present application provides a container and a container data center. The container includes a box, a heat dissipation pipeline, a coil component, a supply component, and an extraction component. The box has an accommodating cavity, and the heat dissipation pipeline, the coil component, the supply component and the extraction component are all located outside the box. The heat dissipation pipeline has an air inlet end and an air outlet end. Two ends of the coil component are respectively connected to the supply component and the extraction component. A cooling medium for cooling high-temperature gas flows inside the coil component and is used to cool the high-temperature gas entering the heat dissipation pipeline from the accommodating cavity. The cooling medium becomes a defective medium after contacting and exchanging heat with the high-temperature gas, and the extraction component is configured to discharge the defective medium.

Abstract: The present application provides a container and a data center of the container. A box is provided with an accommodating cavity for placing an electronic device, and a heat dissipation pipeline includes a housing with a cooling cavity, where the cooling cavity is filled with cooling liquid, and high-temperature gas in the accommodating cavity enters the cooling cavity through an inlet, and low-temperature gas in the cooling cavity generated after heat exchange with the cooling liquid enters the accommodating cavity through an outlet for cooling the electronic device to form heat dissipation circulation.

Abstract: The present disclosure provides a tension-leg floating offshore platform, including a floating body assembly and a detachable temporary floating body; where, during a process of the floating body assembly being towed to an operating sea area, the temporary floating body is movably installed on the floating body assembly; after the floating body assembly is moored to the operating sea area, the temporary floating body is separated from the floating body assembly. The tension-leg floating offshore platform provided in the present disclosure enables the tension-leg floating offshore platform to maintain stability during its installation process.

Abstract: The present disclosure provides a wind power generation apparatus, including a fan configured to obtain wind energy; a first generator, connected with the fan and a load and configured to convert the wind energy obtained by the fan into first electric energy and output the first electric energy to the load; a gas storage module, connected between the first generator and the load and configured to store or release gas; where when an output power of the first generator is greater than a load power of the load, the first generator drives the gas storage module to store a gas; and when the output power of the first generator is lower than the load power, the gas storage module releases a stored gas to generate second electric energy and output the second electric energy to the load.

Abstract: The present application discloses a boarding apparatus for an offshore platform, including a lifting apparatus and a track structure; the track structure is connected to a platform main body of the offshore platform and extends beyond the platform main body; the lifting apparatus is connected to the track structure, and the lifting apparatus is at least movable along the track structure with a moored sea transporting apparatus; the lifting apparatus includes a ride-on assembly for lifting transportation of a ride-on object between the track structure and the sea transporting apparatus. This thus overcomes the impossibility of boarding caused by marine environmental factors and improves boarding efficiency, and avoids damage caused by the collision between the sea transporting apparatus and the offshore platform when the sea transporting apparatus is berthed at the platform.

Abstract: The present application provides a vertical axis wind turbine and a floating body. The vertical axis wind turbine includes a tower, a main shaft, a supporting rod and a blade; where the main shaft is connected with the tower, and the main shaft is provided to be rotatable around a central axis of the tower; the blade is connected to the main shaft by the supporting rod; the tower is retractable. In the present application, the tower and the blade of the vertical axis wind turbine can be contracted, or the tower and the blade can be put down after contraction, or the tower and the blade can be contracted and then stored below a deck, thus reducing the space occupied by the vertical axis wind turbine on the deck of the floating body to meet different operation requirements of the floating body.

Abstract: The present application provides a method for placing a gravity anchor and a floating body. The method includes: fixing a gravity anchor on a floating body when the floating body is located in a dock; sinking the gravity anchor from the floating body to water bottom when the floating body is at a target position. Through the present application, the placement difficulty and cost of the gravity anchor are reduced.