Abstract:
A method of fabricating a LED module by: bonding one or multiple LED chips and multiple conducting terminals to a circuit substrate, and then molding a packing cup on the circuit substrate over by over molding for enabling the LED chip(s) and the conducting terminals to be exposed to the outside of the packing cup, and then molding a lens on the packing cup and the LED chip(s) by over-molding. By means of directly molding the lens on the packing cup and the LED chip(s), no any gap is left in the lens, avoiding deflection, total reflection or light attenuation and enhancing luminous brightness and assuring uniform distribution of output light.
Abstract:
A light-emitting device pressure ring structure includes a mounting base for mounting, a circuit board accommodated in the mounting base and having electrode pins connectable to an external power source, a holder member insertable in the mounting base, a light-emitting unit fixedly mounted in the holder member with a bottom heat sink thereof suspending outside the holder member and tubular electrodes thereof connectable to the electrode pins of the circuit board for power input, and a pressure ring cap detachably threaded onto the mounting base to hold down the holder member and to keep the heat sink of the light-emitting unit outside the mounting base for quick dissipation of waste heat from the light-emitting devices of the light-emitting unit.
Abstract:
In a heat-conducting module and a method for manufacturing the same, the heat-conducting module includes a heat-conducting base and a heat pipe. The surface of the heat-conducting base is formed with a groove. Both sides of the groove protrude upwards to form two side walls respectively. Both of the side walls are provided with hooks respectively that are engaged with each other. The heat pipe is accommodated in the groove of the heat-conducting base and is thus covered and sandwiched by the two side walls. Via this arrangement, the connection between the heat pipe and the heat-conducting base can be firm and steady. In this way, the tight contact between the heat pipe and the heat-conducting base can be increased and the heat-conducting efficiency of the heat-conducting module can be enhanced.
Abstract:
A heat sink and a method for manufacturing the same. The heat sink is used to contact on a heat-generating source of an electronic device. The heat sink comprises a heat-conducting member and at least one heat pipe. With the bottom edge of a heat-absorbing end of the heat pipe contacting with the surface of the heat-generating source, and with the tight connection between the heat pipe and the heat-conducting member, the heat-conducting rate and the heat-dissipating performance of the heat sink can be greatly increase.
Abstract:
A heat dissipating module includes thermal conductive pipes and a thermal fin module. The thermal fin module made by pressing and stacking is mounted on the thermal conductive pipes. Next, a jig is set on a top surface of the thermal fin module, and a force compresses the thermal fin module, so as to reduce a distance between two fins of the thermal fin module. Then, a fixing plate is set above the thermal fin module on the thermal conductive pipes, and the jig is removed. Finally, the fixing plate is fixed on the thermal fin module, and the thermal fin module is securely fixed with the thermal conductive pipes. Therefore, the assembled heat dissipating module could not be loosed and deformed during delivery and the engaging contact between the fins and the thermal conductive pipes are enhanced, so to increase the heat dissipating effect of the heat dissipating module.
Abstract:
A light emitting diode (LED) lamp structure (100) of the present invention includes a housing body (102), a LED lamp module (500), and an electronic module (700, 700′). The housing body (102) includes a lamp base (200), a module base (400), a connecting ring (300) connecting the lamp base (200), and at least one clasping member (104) connecting the module base (400). The LED lamp module (500) connects the connecting ring (300) and is disposed on the lamp base (200). The electronic module (700, 700′) connects the clasping member (104) and is disposed on the module base (400). Thereby, assembling, disassembling and replacing can be achieved without any tools. Meanwhile, the entrance of moisture is also prevented, so that a life span of an electronic device is prolonged.
Abstract:
A LED head sink module includes a LED module, which comprises a circuit substrate, a LED chip installed in the circuit substrate, a packing cup molded on the circuit substrate around the LED chip and a lens molded on the packing cup over the LED chip, a heat sink, which has a base and a flat mounting block located on the bottom side of the base for stopping against the circuit substrate of the LED module for absorbing waste heat, a bracket, which has a center opening that receives the circuit substrate of the LED module, first retaining members for fastening to a retaining portion at the periphery of the packing cup and second retaining members for fastening to the flat mounting block of the heat sink, and a water seal sandwiched between the LED module and the bracket to seal off outside moisture and dust.
Abstract:
A crank apparatus equipped with a labor-saving mechanism and a bicycle crank assembly are disclosed. The crank apparatus includes a crank mechanism, a transmission mechanism, a supporting module and a rotating arm module. The crank mechanism includes a crank, an axle-end gear and a pedal-end gear. The transmission mechanism includes a rotating axle having a circular groove. The supporting module is adapted to sheathe the rotating axle and includes an outer ring and rollers received inside the circular grooves and clamped between the rotating axle and the outer ring. The rotating arm module includes a first rotating arm and a second rotating arm. One end of the second rotating arm is connected to the first rotating arm, and another end of the second rotating arm is connected to the pedal-end gear. Accordingly, the transmission stability and useful lifetime of the crank apparatus and bicycle crank assembly are increased.
Abstract:
An electronic implement replacement structure includes a housing body (102) and an electronic module (300). The housing body (102) has a base (110) and a connecting ring (120) connected to the base (110). The connecting ring (120) includes press portions (124) and notches (122) spaced apart from one another and respectively disposed between each two adjacent press portion (124). A guiding groove (126) is formed on an outer surface of each of the press portions (124). The electronic module (300) is disposed on the base (110) and corresponding to the connecting ring (120). The electronic module (300) includes an electronic unit (310) and a rotatable ring (330) enclosing the electronic unit (310). An inner wall of the rotatable ring (330) has a sliding block (332) correspondingly and rotatably engaged with the guiding groove (126). Therefore, assembling and disassembling can be achieved without any tools.
Abstract:
A light emitting diode (LED) lamp structure (100) of the present invention includes a housing body (102), a LED lamp module (500), and an electronic module (700, 700′). The housing body (102) includes a lamp base (200), a module base (400), a connecting ring (300) connecting the lamp base (200), and at least one clasping member (104) connecting the module base (400). The LED lamp module (500) connects the connecting ring (300) and is disposed on the lamp base (200). The electronic module (700, 700′) connects the clasping member (104) and is disposed on the module base (400). Thereby, assembling, disassembling and replacing can be achieved without any tools. Meanwhile, the entrance of moisture is also prevented, so that a life span of an electronic device is prolonged.