A multi-output gate driver system (100, 200, 300) comprising: a power device having a gate node; a first driver having an input and an output coupled to the gate node via a first current path including a first gate resistor for actively switching the power device on and off; a second driver having an input and an output coupled to the gate node via a second current path separate from the first path, wherein the second driver is configured to be operated in one of an on-state, an off-state and a high impedance state; a first comparator having a first input coupled to the output of the second driver, a second input coupled to a first reference voltage (V on), and an output, wherein the first reference voltage (V on) corresponds to a gate node voltage at which a switch-on transient of the power device has passed; a second comparator having a first input coupled to the output of the second driver, a second input coupled to a second reference voltage (V off), and an output, wherein the second reference voltage (V off) corresponds to a gate node voltage at which a switch-off transient of the power device has passed; and a logic circuit having a first input for receiving a control signal for switching the power device on and off, a second input coupled to the outputs of the first and second comparators (CP1, CP2), a first output coupled to the input of the first driver, and a second output coupled to the input of the second driver, wherein a signal on the second input of the logic circuit indicates whether the output of the second driver reaches or exceeds the first reference voltage (V on) or whether the output of the second driver reaches or falls below the second reference voltage (V off), and the output of the second driver is configured to be correspondingly clamped to either a positive voltage rail or a negative voltage rail in response to a signal on the second output of the logic circuit, and wherein the logic circuit is configured to operate the second driver in the high-impedance state during the switch-on and the switch-off transients of the power device. a power device having a gate node; a first driver having an input and an output coupled to the gate node via a first current path including a first gate resistor for actively switching the power device on and off; a second driver having an input and an output coupled to the gate node via a second current path separate from the first path, wherein the second driver is configured to be operated in one of an on-state, an off-state and a high impedance state; a first comparator having a first input coupled to the output of the second driver, a second input coupled to a first reference voltage (V on), and an output, wherein the first reference voltage (V on) corresponds to a gate node voltage at which a switch-on transient of the power device has passed; a second comparator having a first input coupled to the output of the second driver, a second input coupled to a second reference voltage (V off), and an output, wherein the second reference voltage (V off) corresponds to a gate node voltage at which a switch-off transient of the power device has passed; and a logic circuit having a first input for receiving a control signal for switching the power device on and off, a second input coupled to the outputs of the first and second comparators (CP1, CP2), a first output coupled to the input of the first driver, and a second output coupled to the input of the second driver, wherein a signal on the second input of the logic circuit indicates whether the output of the second driver reaches or exceeds the first reference voltage (V on) or whether the output of the second driver reaches or falls below the second reference voltage (V off), and the output of the second driver is configured to be correspondingly clamped to either a positive voltage rail or a negative voltage rail in response to a signal on the second output of the logic circuit, and wherein the logic circuit is configured to operate the second driver in the high-impedance state during the switch-on and the switch-off transients of the power device.