Abstract: A system for cooling a server includes a chassis including a first and a second chassis inlet, a first and a second chassis outlet, a cooling fluid outlet and a cooling fluid inlet, and a heat exchanger disposed in the chassis. The second chassis inlet and outlet are connected to the second loading pipe. The cooling fluid inlet is connected to a cooling fluid. The cooling fluid outlet discharges the cooling fluid. The heat exchanger includes a first and a second circulating pipe in thermal contact with each other and a cooling pipe. The first circulating pipe is connected to the first chassis outlet and the first chassis inlet respectively. The second circulating pipe is connected to the second chassis outlet and inlet. The cooling pipe is connected to the cooling fluid outlet and the cooling fluid inlet. The chassis and the heat exchanger form the modular cooling system.

Abstract: A temperature control system used for a server system includes a liquid cooling module used for performing heat exchange for the server system through a first fluid and a second fluid, an air-cooled module used for providing a heat-dissipating airflow to the server system; and a control unit coupling the liquid cooling module and the air-cooled module. The control unit is used for adjusting a plurality of temperature adjustment parameters based on the environmental condition of the server system and thereby controlling the liquid cooling module and the air-cooled module at the same time, so as to make the liquid cooling module and the air-cooled module perform a heat-dissipating process according to the corresponding temperature adjustment parameters, and to reduce a environment temperature of the server system. The control unit is further used for adjusting the order of the temperature adjustment parameters based on a scheduling condition.

Abstract: A discontinuous capillary coating device is disclosed. A discontinuous capillary coating device. At least one capillary tube is filled with a coating material. At least one coating substrate receives a liquid coating film. At least one capillary tube holder holds the capillary tube, guiding movement of the capillary tube. At least one traversing mechanism drives the capillary tube holder or coating substrate to move.

Abstract: A device for adjusting a temperature and a humidity using a wind power is provided. The device includes an inlet; an outlet connected to the inlet; a sprayer spraying a nebulized liquid into the device; and an airflow sensor electrically connected to the sprayer for activating the sprayer when an airflow passes through.

Abstract: An integrated electrophoresis device includes a passage, a receiving opening, a removal opening, and a set of electric field generators. The passage is provided with gel and buffer solution. The receiving opening is disposed in the passage. The removal opening is also disposed in the passage. The electric field generators generate an electric field in the passage so that a plurality of charged substances in the passage migrates from the receiving opening to the removal opening.

Abstract: A discontinuous capillary coating device. At least one capillary tube is filled with a coating material. At least one coating substrate receives a liquid coating film. At least one capillary tube holder holds the capillary tube, guiding movement of the capillary tube. At least one traversing mechanism drives the capillary tube holder or coating substrate to move.

Abstract: A device for adjusting a temperature and a humidity using a wind power is provided. The device includes an inlet; an outlet connected to the inlet; a sprayer spraying a nebulized liquid into the device; and an airflow sensor electrically connected to the sprayer for activating the sprayer when an airflow passes through.