An integrated equipment of die-cutting and stacking, characterized in that the integrated equipment comprises two electrode die-cutting mechanisms, two electrode conveying mechanisms, a positive electrode feeding mechanism, a negative electrode feeding mechanism, a battery separator unwinding mechanism, and a double stacking table mechanism; wherein the positive electrode feeding mechanism and the negative electrode feeding mechanism are respectively arranged on two sides of the double stacking table mechanism; and one electrode conveying mechanism is arranged between the electrode die-cutting mechanism and the positive electrode feeding mechanism, and another electrode conveying mechanism is arranged between the electrode die-cutting mechanism and the negative electrode feeding mechanism; the battery separator unwinding mechanism is located above the double stacking table mechanism; the double stacking table mechanism comprises a rotating shaft, two rotating arms, two central rotating shafts, a first stacking table and a second stacking table; two ends of the rotating shaft are respectively fixedly connected to middles of the two rotating arms; the first stacking table and the second stacking table are both arranged between the two rotating arms, and are located on two sides of the rotating shaft respectively; one central rotating shaft passes through the first stacking table, two ends of the one central rotating shaft are respectively rotatably connected with an end of one rotating arm and an end of an other rotating arm; another central rotating shaft passes through the second stacking table, two ends of the other central rotating shaft are respectively rotatably connected with an other end of the one rotating arm and an other end of the other rotating arm; the first stacking table and the second stacking table are both configured to realize stacking of electrodes. two electrode die-cutting mechanisms, two electrode conveying mechanisms, a positive electrode feeding mechanism, a negative electrode feeding mechanism, a battery separator unwinding mechanism, and a double stacking table mechanism; wherein the positive electrode feeding mechanism and the negative electrode feeding mechanism are respectively arranged on two sides of the double stacking table mechanism; and one electrode conveying mechanism is arranged between the electrode die-cutting mechanism and the positive electrode feeding mechanism, and another electrode conveying mechanism is arranged between the electrode die-cutting mechanism and the negative electrode feeding mechanism; the battery separator unwinding mechanism is located above the double stacking table mechanism; the double stacking table mechanism comprises a rotating shaft, two rotating arms, two central rotating shafts, a first stacking table and a second stacking table; two ends of the rotating shaft are respectively fixedly connected to middles of the two rotating arms; the first stacking table and the second stacking table are both arranged between the two rotating arms, and are located on two sides of the rotating shaft respectively; one central rotating shaft passes through the first stacking table, two ends of the one central rotating shaft are respectively rotatably connected with an end of one rotating arm and an end of an other rotating arm; another central rotating shaft passes through the second stacking table, two ends of the other central rotating shaft are respectively rotatably connected with an other end of the one rotating arm and an other end of the other rotating arm; the first stacking table and the second stacking table are both configured to realize stacking of electrodes.