A voltage drop compensation apparatus associated with voltage regulation in a flyback voltage converter, the apparatus comprising: an output voltage sense circuit to couple to an output of the voltage converter to generate an output voltage sense signal proportional to an output voltage generated by the voltage converter; a regulation feedback controller coupled to the output voltage sense circuit to determine a voltage difference between the output voltage sense signal and a reference voltage and to generate a negative feedback control signal proportional to the voltage difference to send to a pulse width modulation PWM regulation controller, the negative feedback control signal being to cause the PWM regulation controller to drive the converter output voltage (V_OUT) closer to a set-point determined by the reference voltage; and characterized by an output current proportional voltage divider and averaging circuit to couple to a secondary winding of a flyback transformer associated with the voltage converter to increase the reference voltage in proportion to a magnitude of current flow at the output of the converter and to increase the converter output voltage set-point to compensate for a voltage drop between the converter and a device powered by the converter, thereby compensating for a voltage drop in a cable to couple the converter output to a device powered by the converter; wherein a voltage divider portion of the output current proportional voltage divider and averaging circuit comprises: a compensation diode anode-coupled to the secondary winding of the flyback transformer to direct current flow in a forward direction from the secondary winding; a first compensation resistor with a first terminal coupled to a cathode of the compensation diode; and a second compensation resistor coupled in series between the first compensation resistor and a common voltage node, a voltage division node at the junction of the first and second compensation resistors being coupled to a terminal of a reference voltage source associated with the regulation feedback controller in order to increase the reference voltage by a magnitude of a continuous direct current DC voltage generated at the voltage division node. an output voltage sense circuit to couple to an output of the voltage converter to generate an output voltage sense signal proportional to an output voltage generated by the voltage converter; a regulation feedback controller coupled to the output voltage sense circuit to determine a voltage difference between the output voltage sense signal and a reference voltage and to generate a negative feedback control signal proportional to the voltage difference to send to a pulse width modulation PWM regulation controller, the negative feedback control signal being to cause the PWM regulation controller to drive the converter output voltage (V_OUT) closer to a set-point determined by the reference voltage; and characterized by an output current proportional voltage divider and averaging circuit to couple to a secondary winding of a flyback transformer associated with the voltage converter to increase the reference voltage in proportion to a magnitude of current flow at the output of the converter and to increase the converter output voltage set-point to compensate for a voltage drop between the converter and a device powered by the converter, thereby compensating for a voltage drop in a cable to couple the converter output to a device powered by the converter; wherein a voltage divider portion of the output current proportional voltage divider and averaging circuit comprises: a compensation diode anode-coupled to the secondary winding of the flyback transformer to direct current flow in a forward direction from the secondary winding; a first compensation resistor with a first terminal coupled to a cathode of the compensation diode; and a second compensation resistor coupled in series between the first compensation resistor and a common voltage node, a voltage division node at the junction of the first and second compensation resistors being coupled to a terminal of a reference voltage source associated with the regulation feedback controller in order to increase the reference voltage by a magnitude of a continuous direct current DC voltage generated at the voltage division node. a compensation diode anode-coupled to the secondary winding of the flyback transformer to direct current flow in a forward direction from the secondary winding; a first compensation resistor with a first terminal coupled to a cathode of the compensation diode; and a second compensation resistor coupled in series between the first compensation resistor and a common voltage node, a voltage division node at the junction of the first and second compensation resistors being coupled to a terminal of a reference voltage source associated with the regulation feedback controller in order to increase the reference voltage by a magnitude of a continuous direct current DC voltage generated at the voltage division node.