Abstract: A cooling stand includes a base and a top plate made of a crystal glass material. At least one support member is provided on an upper face of the base for supporting the top plate above the base. One face of the top plate facing away from the base is an inclined supporting face, and the top plate and the base together define a rearward expanded space between them. A heat-producing article can be positioned on the inclined supporting face of the top plate, allowing a user to operate the heat-producing article in a position meeting the ergonomics. Meanwhile, heat produced by the heat-producing article can be highly efficiently absorbed by and then dissipated from the crystal glass material of the top plate through air convection at the rearward expanded space.

Abstract: A protective case for fan includes a case body having a closed bottom portion and a sidewall portion extended along a periphery of the bottom portion, so that a receiving space is defined between the bottom and sidewall portions. A case cover can be closed onto an open top of the receiving space to seal the same. Two first raised ribs are formed on the closed bottom portion adjacent to two opposite sides thereof, such that first retaining portions are defined between the sidewall portion and faces of the first raised ribs facing toward the sidewall portion, and second retaining portions are defined on another faces of the first raised ribs facing away from the sidewall portion. By providing the first and second retaining portions, the same protective case can be conveniently used to stably pack differently sized fans to save the manufacturing cost of the protective case.

Abstract: A heat radiating unit for adapter includes at least one receiving portion and a heat radiating portion. The receiving portion has at least one receiving space for receiving at least one adapter therein. The heat radiating portion includes a plurality of radiating fins, which are extended from an outer surface of the receiving portion in directions opposite to the receiving portion. With the heat radiating unit for adapter, heat produced by an adapter disposed in the receiving space can be transferred to and dissipated from the heat radiating portion to achieve good heat dissipation effect while largely increasing the usable life and power transmission efficiency of the adapter.

Abstract: A cooling stand includes a base and a top plate made of a crystal glass material. At least one support member is provided on an upper face of the base for supporting the top plate above the base. One face of the top plate facing away from the base is an inclined supporting face, and the top plate and the base together define a rearward expanded space between them. A heat-producing article can be positioned on the inclined supporting face of the top plate, allowing a user to operate the heat-producing article in a position meeting the ergonomics. Meanwhile, heat produced by the heat-producing article can be highly efficiently absorbed by and then dissipated from the crystal glass material of the top plate through air convection at the rearward expanded space.

Abstract: A radiator structure includes a base and conductive components. Several fins extend from the base and the conductive components are arranged in the base and the fins in a way of being distributed in orderly pieces in the base and the fins. The base and the fins are made of a metallic material with better heat dissipation rate and the conductive components are made of a metallic material with better heat conductivity so that integral heat dissipation efficiency of the radiator is enhanced largely.

Abstract: A radiator structure includes a base and at least a conductive component. Several fins extend from the base and the conductive component is associated with the base and the fins. The conductive component is locally located at the base and the fins. The base and the fins are made of a metallic material different from the conductive component so that heat conduction efficiency is enhanced largely.

Abstract: A radiator unit includes a cooling device with a conductor, a heat dissipated object contacting a side of the cooling device and a fan connecting with the conductor. The heat dissipated object contacts the hot surface of the cooling device and the cooling device performs energy transfer to change heat to electrical energy. Hence, current flows in a circuit formed of the conductor to drive the fan rotating.

Abstract: A heat generation assembly with heat removing structure includes a heat generating component and a cooling unit disposed at a lateral side of the heat generating component. The heat generating component contacts with the cool unit to allow the cooling unit occurring energy transfer and the heat is changed to electric energy. Hence, the heat generated during the heat generating component being in operation is removed effectively.