Abstract: A serial surge suppression and overload protection optimization device has an input terminal, an output terminal and multiple surge suppression units. The surge suppression units are serially connected between the input terminal and the output terminal. Each surge suppression unit has two parallel inductors and multiple surge absorbing elements. Each surge absorbing element is connected to an output end of one of the parallel inductors and has a fuse serially connected therewith. When surge energy is excessively large, the fuse melts to separate the surge absorbing element from a main power loop without causing a short circuit within the main power loop due to the meltdown of the fuse. The optimization device is used with an automatic overload protection unit to normally supply power to equipment connected to the output terminal thereof and ensure electrical safety protection with a bypass circuit design thereof.

Abstract: A serial surge suppression and overload protection optimization device has an input terminal, an output terminal and multiple surge suppression units. The surge suppression units are serially connected between the input terminal and the output terminal. Each surge suppression unit has two parallel inductors and multiple surge absorbing elements. Each surge absorbing element is connected to an output end of one of the parallel inductors and has a fuse serially connected therewith. When surge energy is excessively large, the fuse melts to separate the surge absorbing element from a main power loop without causing a short circuit within the main power loop due to the meltdown of the fuse. The optimization device is used with an automatic overload protection unit to normally supply power to equipment connected to the output terminal thereof and ensure electrical safety protection with a bypass circuit design thereof.

Abstract: A serially connected surge suppression optimization device has an input terminal, an output terminal, a plurality of surge suppression units. The surge suppression units are serially mounted between the input terminal and the output terminal. Each surge suppression unit has at least one pair of parallel inductors and a plurality of surge absorption units respectively connected with one end of each of the pair of inductors. The pair of parallel inductors mounted in the surge suppression unit in a pre-stage and the surge suppression unit in a post-stage have different conductance values. Accordingly, the surge suppression optimization device connected in a path from which surges pass can significantly reduce energy of a surge flowing in and a residual surge voltage. The different conductance values of the surge suppression units in a pre-stage and a post-stage smoothen an intruding surge to secure better safety protection without abruptly generating a peak rise.

Abstract: A serially connected surge suppression optimization device has an input terminal, an output terminal, a plurality of surge suppression units. The surge suppression units are serially mounted between the input terminal and the output terminal. Each surge suppression unit has at least one pair of parallel inductors and a plurality of surge absorption units respectively connected with one end of each of the pair of inductors. The pair of parallel inductors mounted in the surge suppression unit in a pre-stage and the surge suppression unit in a post-stage have different conductance values. Accordingly, the surge suppression optimization device connected in a path from which surges pass can significantly reduce energy of a surge flowing in and a residual surge voltage. The different conductance values of the surge suppression units in a pre-stage and a post-stage smoothen an intruding surge to secure better safety protection without abruptly generating a peak rise.

Abstract: A series surge suppression structure mainly comprises: a circuit board, a ground line and a plurality of galvanization circuits being disposed thereon, a multilayer surge absorption unit being disposed in series on the ground line and the plurality of galvanization circuits; wherein each surge absorption unit is constituted by a pair of chokes with a layered surge absorption element connected in parallel between one end of either choke and the ground line; a power connection terminal, positioned on one side of the circuit board and electrically connected to a final end of the multilayer surge absorption unit; and a protection terminal, positioned on another side of the circuit board and electrically connected to a final end at another side of the multilayer surge absorption unit; whereby, the protection terminal can be used to connect with a communication circuit or an electric facility and the power connection terminal is used for connecting with an external wire so as to form a multilayer surge absorption p