Abstract: A water cooling system includes a water block, a heat radiator, a pump, a circulating conduit and a water storage assembly. The pump is disposed between the water block and the heat radiator. The circulating conduit communicates with the water block, the heat radiator and the pump. The water storage assembly is configured to be a part of an integrated element. The integrated element includes one of the water block, the heat radiator and the pump. The water storage assembly includes a liquid storage chamber and a liquid guide. The liquid storage chamber has an inner wall. An end of the liquid guide has a protrusive tube end reaching to the liquid storage chamber. The protrusive tube end protrudes from the inner wall. An angular space is formed between the protrusive tube end and the inner wall.

Abstract: A water cooling system includes a water block, a heat radiator, a pump, a circulating conduit and a water storage assembly. The pump is disposed between the water block and the heat radiator. The circulating conduit communicates with the water block, the heat radiator and the pump. The water storage assembly is configured to be a part of an integrated element. The integrated element includes one of the water block, the heat radiator and the pump. The water storage assembly includes a liquid storage chamber and a liquid guide. The liquid storage chamber has an inner wall. An end of the liquid guide has a protrusive tube end reaching to the liquid storage chamber. The protrusive tube end protrudes from the inner wall. An angular space is formed between the protrusive tube end and the inner wall.

Abstract: A liquid cooling device includes a base (1), a passive impeller (3) and a cold plate (4). The base (1) includes a division plate (11), a chamber (12) and a flow guiding pole (13). The division plate (11) divides the chamber (12) into a catchment portion and a heat exchanging portion (17). The flow guiding pole (13) communicates with both the catchment portion (16) and the heat exchanging portion (17). The passive impeller (3) is received in the chamber (12) and radially driven to rotate by the working fluid. The cold plate (4) is arranged correspondingly to the heat exchanging portion (17) and fastened to the base (1).

Abstract: A liquid cooling device includes a base (1), a passive impeller (3) and a cold plate (4). The base (1) includes a division plate (11), a chamber (12) and a flow guiding pole (13). The division plate (11) divides the chamber (12) into a catchment portion and a heat exchanging portion (17). The flow guiding pole (13) communicates with both the catchment portion (16) and the heat exchanging portion (17). The passive impeller (3) is received in the chamber (12) and radially driven to rotate by the working fluid. The cold plate (4) is arranged correspondingly to the heat exchanging portion (17) and fastened to the base (1).

Abstract: A liquid-cooled heat dissipation apparatus includes a water cooling module (1), a water pump set (2) and a reservoir tank (3). The water cooling module (1) includes a heat exchange unit (11) and a base (12) having a pump receiving slot (121) and a heat exchange chamber (T). The base (12) includes a water inlet channel (G1), drainage channel (G2) and first channel (G10). The water pump set (2) is arranged inside the pump receiving slot (121) and includes a rotor assembly (21) and a blade assembly (23). The blade assembly (23) is attached onto the rotor assembly (21) and includes a second channel (G20). The reservoir tank (3) is detachably stacked onto the water cooling module (1) and includes a water containing chamber (R) and a water supply channel (G3) formed thereon. Accordingly, the apparatus achieves the effects of independent reservoir, readily water supply and pipeline exhaust simultaneously.

Abstract: A liquid-cooled heat dissipation apparatus includes a water cooling module (1), a water pump set (2) and a reservoir tank (3). The water cooling module (1) includes a heat exchange unit (11) and a base (12) having a pump receiving slot (121) and a heat exchange chamber (T). The base (12) includes a water inlet channel (G1), drainage channel (G2) and first channel (G10). The water pump set (2) is arranged inside the pump receiving slot (121) and includes a rotor assembly (21) and a blade assembly (23). The blade assembly (23) is attached onto the rotor assembly (21) and includes a second channel (G20). The reservoir tank (3) is detachably stacked onto the water cooling module (1) and includes a water containing chamber (R) and a water supply channel (G3) formed thereon. Accordingly, the apparatus achieves the effects of independent reservoir, readily water supply and pipeline exhaust simultaneously.

Abstract: The present invention relates to a heat-dissipating fin capable of increasing surface turbulence, which includes a first heat-dissipating fin and a second heat-dissipating fin. A first surface of the first heat-dissipating fin is provided with a plurality of first protrusions arranged at intervals. The second heat-dissipating fin has a second surface toward the first surface. The second surface is also provided with a plurality of second protrusions arranged at intervals. The second protrusions are arranged to correspond to the first protrusions. The second heat-dissipating fin is overlapped with the first heat-dissipating fin. With the arrangement of the first protrusions and the second protrusions, the heat-dissipating area of the first heat-dissipating fin and the second heat-dissipating fin can be increased so as to increase the surface turbulence. Thus, the heat-exchange efficiency can be enhanced.

Abstract: A heat sink structure, having a heat sink and a thermal conductive block. The heat sink has a receiving slot recessed from a central portion of a bottom thereof. The thermal conductive block has a plurality of uneven surfaces thereon and a plurality of conical through holes therein. The thermal conductive block is pressed into the receiving slot while the heat sink is softened by heating, and the heat sink has a thermal expansion coefficient larger than the thermal conductive block, such that a wall of the receiving slot is partly extruded into or through the conical through holes, and the wall outside of the conical through holes is partly contracted into the conical holes in a cooling process after the thermal conductive block is pressed into the receiving slot. The conical through holes also provides the function of expelling gas, such that the thermal conductive block is firmly attached to the heat sink, and the heat dissipation effect is further enhanced.