text: referring to fig1 the rapidly self - heat - conductive heat - dissipating module of the present invention is illustrated . the heat - dissipating module has two heatsink sets 1 and a plurality of heat convection super conductive tubes 2 . the heat convection super conductive tubes 2 are made of bendable metal tubes ( for example , copper , aluminum , etc .). high temperature super conductor composites , such as yttrium barium copper oxide ( ybco ) superconductor material , thallium barium calcium copper oxide ( tbcco ) superconductor material , mercury barium calcium copper oxide ( hbcco ) superconductor material , bismuth strontium calcium copper oxide ( bscco ) superconductor material , or other superconductor material , or other rapid heat conductive material . two ends of the tube are closed for preventing the superconductor material to drain out of the tube . therefore , heat convection super conductive tube 2 is formed by aforesaid metal tube and the superconductor material enclosed therein . the principle used is that when the molecules in the tube is heated , heat energy can be transferred by convection due to the rapid oscillation and large friction . therefore , the heat can be transferred rapidly , and it is called as a heat convection super conductive tube . since the heat transfer time in the heat convection super conductive tube from a heat end to a cold end is very short , the temperature difference between the heat end and the cold end is very small and thus an optimum heat transfer can be acquired . it has been appreciated that the speed of heat transfer is about five times of that of copper . furthermore , it is quicker than general aluminum extruding heat dissipating heatsinks . in the present invention , the heatsink sets 1 are elements contacting a cpu for absorbing heat . there are two heatsink sets 1 . the reason for using two heatsink sets 1 is that when heat is transferred the upper heatsink set 1 , since the upper and lower heatsink sets 1 are separated , no convection occurs and thus no heat returns . [ 0018 ] fig1 shows the first embodiment of the present invention . there are two heatsink sets 1 exposing out and having a plurality of fins 11 . the lateral side of one heatsink set 1 near the base 10 has a plurality of trenches 12 . a bottom of the base 10 of another heatsink set 1 is installed with a plurality of trenches 12 . the heat convection super conductive tubes 2 are bent to have a u shape . one end of the u shape tube is placed in a trench 12 and another end thereof is placed in another trench 12 . the two heatsink sets 1 are assembled as one set . meanwhile , the heat convection super conductive tube 2 has the effect of buckling two sets of heatsink sets 1 ( referring to fig2 ). the bottom of the base 10 of the heatsink set 1 with trenches 12 serves for contacting a heat source , such as cpu . therefore , large amount of heat can be transferred to another heatsink set 1 through the heat convection super conductive tube 2 . then heat is transferred to each heatsink . therefore , a rapidly self - heat - conductive heat - dissipating module is formed by the heat convection super conductive tubes 2 and the heatsink sets 1 . a heat dissipating fan 3 is assembled at the identical lateral side of the two heatsink sets 1 for blowing cold air to the fins 11 to achieve a high efficiency heat dissipation . referring to fig3 the second embodiment of the present invention is illustrated . there are two identical heatsink sets 1 . the bottom of the base 10 of the heatsink set 1 has a plurality of trenches 12 . the heat convection super conductive tubes 2 are bent to have a u shape . two ends of the u shape tube are placed in trenches 12 . the two heatsink sets 1 are assembled as one set , and the fins of the two heatsink sets 1 are alternatively arranged . meanwhile , the heat convection super conductive tube 2 has the effect of buckling two sets of heatsink sets 1 ( referring to fig4 ). the base 10 of the heatsink set 1 with trenches 12 serves for contacting a heat source . therefore , large amount of heat can be transferred to another heatsink set 1 through the heat convection super conductive tube 2 . then heat is thus transferred to each heatsink . the alternatively arranged fins can increase the area of heat dissipation . a heat dissipating fan 3 is assembled at the identical lateral side of the two heatsink sets 1 for blowing cold air to the fins 11 to achieve a high efficiency heat dissipation . [ 0020 ] fig5 shows the second embodiment of the present invention . in this the present invention , the heatsink sets 1 are identical to those in the first embodiment . the difference is the heat convection super conductive tube 2 . there are two heat convection super conductive tubes 2 . each heat convection super conductive tube 2 is formed by two u shapes . one heat convection super conductive tube 2 is wider , and the other is small . the two free ends of the double u shapes of the wider heat convection super conductive tube 2 can be placed in the two trenches 12 at the lateral sides . the u shape of the tube having no free end is placed in the two trenches 12 at the lateral sides . the two free ends of the double u shapes of the narrower heat convection super conductive tube 2 can be placed in the two trenches 12 at the inner sides . the u shape having no free end is placed in the two trenches 12 at the inner sides . therefore , other than transferring through the fins 11 , the heat absorbed by the base 10 can be transferred to the heatsinks through the heat convection super conductive tubes 2 rapidly so that heat can be dispersed on the fins 11 . a heat dissipating fan 3 is assembled at the identical lateral side of the two heatsink sets 1 for blowing cold air to the fins 11 to achieve a high efficiency heat dissipation . [ 0021 ] fig7 shows the fourth embodiment of the present invention . in this embodiment , the heatsink sets 1 and the heat convection super conductive tube 2 can be assembled together and one or a plurality of heat dissipating fans are added for increasing the heat dissipating efficiency . the rapidly self - heat - conductive heat - dissipating module of the present invention has the following advantages . 1 . heat from the heat source can be rapidly and effectively transferred to the heat dissipating module . 2 . heat from the heat source can be dispersed rapidly and effectively . 3 . in the present invention , a plurality of rapidly self - heat - conductive heat - dissipating module can be assembly integrally , the heat from the heat source can be dispersed more effectively . the present invention are thus described , it will be obvious that the same may be varied in many ways . such variations are not to be regarded as a departure from the spirit and scope of the present invention , and all such modifications as would be obvious to one skilled in the art are intended to be included within the scope of the following claims .