Abstract: The disclosure discusses a secondary battery with superior durability and a vehicle configured to mount the same. The secondary battery comprises an electrode structure wherein a cathode is formed at one side of a base material layer having electrical insulating property and an anode is formed at another side of the base material layer. A plurality of electrode structures are stacked with an electrolyte layer interposed therebetween such that the cathode and anode of adjacent electrode structures are on opposite sides of the electrolyte layer.

Abstract: A battery including an electrode and electrode terminal, the electrode comprising a multilayered collector assembly having a multilayered portion that includes an insulation layer and two electrically conductive layers disposed on opposite sides of the insulation layer, and a conductive portion made of an electrically conductive material, connected to the two conductive layers and extending therefrom more toward a side end of the electrode than a side end of the insulation layer so as to be electrically connected to the electrode terminal, and a pair of active material layers disposed on opposite sides of the multilayered portion.

Abstract: A battery including an electrode and electrode terminal, the electrode comprising a multilayered collector assembly having a multilayered portion that includes an insulation layer and two electrically conductive layers disposed on opposite sides of the insulation layer, and a conductive portion made of an electrically conductive material, connected to the two conductive layers and extending therefrom more toward a side end of the electrode than a side end of the insulation layer so as to be electrically connected to the electrode terminal, and a pair of active material layers disposed on opposite sides of the multilayered portion.

Abstract: The disclosure discusses a secondary battery with superior durability and a vehicle configured to mount the same. The secondary battery comprises an electrode structure wherein a cathode is formed at one side of a base material layer having electrical insulating property and an anode is formed at another side of the base material layer. A plurality of electrode structures are stacked with an electrolyte layer interposed therebetween such that the cathode and anode of adjacent electrode structures are on opposite sides of the electrolyte layer.

Abstract: A method of separating an adhesive-bonded body is provided, by which a pair of pieces bonded together by using an adhesive can be easily securely separated from each other, wherein the adhesive has excellent adhesive force without being influenced by environmental temperature, excellent storage stability and wide scope of selection of the piece to be bonded. An adhesive-bonded body 1 includes a pair of pieces 2 bonded together and an adhesive layer 4. The adhesive layer 4 bonds the pair of pieces 2 to each other. Ultrasonic vibration is applied to the adhesive-bonded body 1 which is put between a tool horn 6 and an anvil 7 of an ultrasonic vibration applying device 3. The ultrasonic vibration is generated by applying a voltage to a piezoelectric vibrator 5 and vibrates the tool horn 6. The tool horn 6 vibrates ultrasonically together with one piece 2. The pair of the pieces 2 bonded together shifts relatively each other due to the ultrasonic vibration.