Abstract: A battery includes at least one rechargeable battery cell that is operable to store energy. An electronics unit is coupled to the at least one rechargeable battery cell, wherein the electronics unit is operable to control an operating condition of the battery, and wherein the electronics unit is inoperable when the energy stored in the at least one rechargeable battery cell is insufficient to operate the electronics unit. A detector component is coupled to the electronics unit and operable to determine that the electronics unit is inoperable. A charge discharge component is coupled to the at least one rechargeable battery cell, wherein in response to the electronics unit being operable, the charge discharge component is operable to provide a charge to the at least one rechargeable battery cell through a first charge path.

Abstract: A battery includes at least one rechargeable battery cell that is operable to store energy. An electronics unit is coupled to the at least one rechargeable battery cell, wherein the electronics unit is operable to control an operating condition of the battery, and wherein the electronics unit is inoperable when the energy stored in the at least one rechargeable battery cell is insufficient to operate the electronics unit. A detector component is coupled to the electronics unit and operable to determine that the electronics unit is inoperable. A charge discharge component is coupled to the at least one rechargeable battery cell, wherein in response to the electronics unit being operable, the charge discharge component is operable to provide a charge to the at least one rechargeable battery cell through a first charge path.

Abstract: For recovering and reconditioning a smart battery, a functionally dead condition of the battery is detected. The battery includes an electronics unit. The electronics unit is operable for controlling an operating condition of the battery. In the functionally dead condition of the battery, the electronics unit becomes inoperable. While in this condition, a current limited trickle charge is provided to the battery such that the path of the trickle charge bypasses the inoperable electronics unit. Upon the battery receiving a sufficient amount of charge, the electronics unit regains control. The electronics unit reconditions the battery by recharging it to a fully charged state.

Abstract: In a method and system for recovering and reconditioning a smart battery, a functionally dead condition of the battery is detected. The battery includes an electronics unit. The electronics unit is operable for controlling an operating condition of the battery. In the functionally dead condition of the battery, the electronics unit becomes inoperable. While in this condition, a current limited trickle charge is provided to the battery such that the path of the trickle charge bypasses the inoperable electronics unit. Upon the battery receiving a sufficient amount of charge, the electronics unit regains control. The electronics unit reconditions the battery by recharging it to a fully charged state.

Abstract: In a method and system for recovering and reconditioning a smart battery, a functionally dead condition of the battery is detected. The battery includes smart electronics. The smart electronics is operable for controlling an operating condition of the battery. In the functionally dead condition of the battery, the smart electronics becomes inoperable. While in this condition, a current limited trickle charge is provided to the battery such that the path of the trickle charge bypasses the inoperable smart electronics. Upon the battery receiving a sufficient amount of charge, the smart electronics regains control. The smart electronics reconditions the battery by recharging it to a fully charged state.