Abstract: A heat sink buckle is provided. The heat sink buckle includes a frame and a side plate. The frame includes a plurality of frame sides. The side plate is substantially perpendicular with the frame, and is configured extending from one of the frame sides. A central portion of the side plate is jointly connected to the frame side. The side plate includes a pressing member and a fixing member. The pressing member is positionally higher than the frame side and the fixing member is positionally lower than the frame side. The fixing member has an inner side surface. The fixing member includes a clasp extruded from a bottom edge of the inner side surface of the fixing member. When the pressing member is inwardly pressed, the fixing member is outwardly widened, and when the pressing member is released, the fixing member recovers to the original position.

Abstract: A heatsink assembly includes a heatsink having a base board which includes fins extending from a top thereof and a recessed area defined in an underside thereof. The recessed area of the heatsink is adapted for engagement with a chip set. A positioning device includes a rectangular frame that is mounted to the heatsink and includes two side plates extending downward from two opposite sides thereof. Each side plate has a hook extending from an inside thereof so as to hook the chip set. Two flexible rods extend from the two opposite sides of the rectangular frame and each flexible rod has a pressing portion which presses on the top of the base board of the heatsink.

Abstract: A heatsink assembly includes a heatsink which has a base board and fins extending from a top thereof. The heatsink is directly put on the chip set. A positioning device includes a rectangular frame which is mounted to the heatsink and includes two first extensions and two second extensions extending from two pairs of opposite sides thereof. Each first extension has a hook extending from an inside thereof so as to hook the circuit board and the second extensions each have a first inclined surface engaged with the inclined surface defined in a periphery of the chip. Two flexible rods extend from the two opposite sides of the rectangular frame and each flexible rod has a pressing portion which presses on the top of the base board of the heatsink.

Abstract: A positioning device for connecting a heatsink to a chip set includes a rectangular frame having a through hole in a center thereof, two side plates extending from two opposite sides thereof and each side plate has one hook extending from an inside thereof. Two positioning rods extend from the other two opposite sides of the rectangular frame, and a plurality of flexible rods extend from insides of the rectangular frame. The heatsink extends through the through hole of the rectangular frame and the positioning rods insert through apertures in the heatsink. The hooks are hooked to two sides of the chip set and the flexible rods press on the heatsink.

Abstract: The proposed heat sink assembly mounted on a heat source includes a heat sink including a base with a top surface and a plurality of fins, and a retaining device including a frame with a top, a hole with a size larger than that of the base, an elastic rod connected with the frame, extending into the hole and having and end portion protruding towards the hole and pushing the heat sink and a plurality of retaining plates extending downwards from one of the first two and the second two opposite sides. Each of the retaining plates has a barb mounting the heat sink on the heat source and making the top surface raise through the hole to a same height of the top to facilitate the heat dissipation.

Abstract: An environment protection concerned method for manufacturing a heat sink includes the steps of: (a) putting a main material with a top into a die; (b) placing a heat transfer promoting material on the top of the main material, wherein the heat transfer promoting material has a thermal conductivity larger than that of the main material; and (c) forging the heat transfer promoting material and the main material to form a heat sink having a plurality of radiation fins.

Abstract: A heat-dissipating device for a display is provided. The flat display includes a screen, a light source module, a control circuit board and a case with plural holes. The heat-dissipating device is made of heat-dissipating materials. The heat-dissipating device further includes a first heat-dissipating module and a second heat-dissipating module connected to the first heat-dissipating module. The heat-dissipating parts in the first heat-dissipating module form a plurality of spaces. And the convectional channel is formed by the first heat-dissipating module and the second heat-dissipating module. Finally the heat generated from light source module and the control circuit board is dissipated via the convectional channel and the plural of holes on the case.

Abstract: An environment protection concerned method for manufacturing a heat sink comprises steps of: (a) putting a main material with a top into a die; (b) placing a heat transfer promoting material on the top of the main material, wherein the heat transfer promoting material has a thermal conductivity larger than that of the main material; and (c) forging the heat transfer promoting material and the main material to form a heat sink having a plurality of radiation fins.

Abstract: An anchor base for a heat sink for an IC chipset is formed basically in a rectangular frame comprising: two lateral plates respectively formed at the bottom of two opposite lateral stiles of the rectangular frame, each of the two opposite lateral plates having a respective snap barb at its lower portion; a longitudinal resilient rod bridging the other two opposite lateral stiles of the rectangular frame, wherein two ends of the longitudinal resilient rod are extended downwardly to form a pair of protruding rods which are no shorter than the height of the lateral plates; a shorter resilient rod crossing the longitudinal resilient rod; wherein a protrusion is formed at the bottom of each of two ends of the shorter resilient rod. Thus, an anchor base for a heat sink can be made without any extra perforation or cutting steps.

Abstract: An anchor base for heat sink of IC chipset is formed basically in a rectangular frame comprising: two lateral plates respectively formed at the bottom of the two opposite lateral stiles of the rectangular frame, each of the two opposite lateral plates having respective snap barb at its lower portion; a longitudinal resilient rod striding the rest two opposite lateral stiles of the rectangular frame, wherein two ends of the longitudinal resilient rod are extended downwardly to form a pair of protruding rods which are no shorter than the height of the lateral plates; a shorter resilient rod crossing the longitudinal resilient rod, wherein a protrusion is formed on each of two ends of the shorter resilient rod at a lower position.

Abstract: A heat sink dissipater includes a retaining device and a heat dissipater. A plurality of fins and a plurality of pads or recesses are integrally formed on the top surface of the heat dissipater. A plurality of resilient legs extend inward from the sides of the retaining device. Retaining edges are also formed on two sides of the retaining device. The resilient legs fall into the gaps between the fins when the retaining device is positioned on the heat dissipater to secure a CPU assembly. In an orientation, the legs are placed on the pads or recesses of the heat dissipater and in an orthogonal orientation, the legs are placed directly on the top surface of the heat dissipater. Therefore, CPU assemblies of different thickness can be accommodated by rotating the retaining device or the heat dissipater 90 degrees.

Abstract: A heat sink assembly for an integrated circuit comprises a base plate defining a central opening and an integrated circuit receiving slot, a fin plate defining a downwardly extending protrusion, a fan fixedly mounted on a top of the fin, and screws for connecting the fin plate and the base plate together whereby the downwardly extending protrusion of the fin plate is extended through the opening of the base plate.

Abstract: Tension clamp of the type including a sheath provided with an anchoring element and a tapered cavity inclined at a slight angle. In the cavity is a slidably mounted, transversely movable core including a single jaw having an abutting face against the cable. A part of the cavity of the sheath serves as a cradle for the cable and has a substantially semicylindrical cross-section with a radius matching that of the cable. A shell is provided between the part of the cavity of the sheath serving as a cradle for the cable and the cable. The shell is connected axially to the single jaw so as to follow its lengthwise movements, namely those parallel to the cable, but which is displaceable perpendicular to the lengthwise movements.

Abstract: Tension clamp having a sheath provided with a tapered cavity inclined at a slight angle, opened by a lengthwise slit in which is slidably mounted a transversely movable core having a single jaw. An abutting face of the jaw facing a cable is equipped with a bar having a serration in a free face. A bearing face of the single jaw abutting a tapered bearing part of the cavity and the tapered bearing part have matching semicylindrical cross-sections and a common lengthwise axis. The tip of each serration is sloped such that its point of contact with the cable is offset toward a bottom of the cavity opposite lengthwise slit, relative to a diametral plane which contains the axis of the bearing face of the jaw and the axis of the cable.

Abstract: A clamp comprises a split sleeve provided with a mooring element and a conical recess with a slight slope in which a compressible core is mounted to a slide exhibiting a cavity for housing of the electric conductor or its carrying cable. The slide has an outside shape complementary to that of the recess of sleeve and which can be wedged by sliding in the latter. At least one longitudinal portion of the wall of cavity the central core, provided for housing the carrying cable of conductor and, preferably, each of the two diametrically opposite longitudinal portions of this cavity, consists of a metal bar inserted in this wall and whose free face is provided with teeth.