A sensor system for providing commutation control of an electric motor, comprising: an inductive angle sensor system including: a first inductive coil configured for affixation to a rotor shaft of the electric motor wherein rotation of the rotor shaft causes corresponding rotation of the first inductive coil; a second inductive coil (24,26) fixedly mounted in spaced relationship to the first inductive coil; and an evaluation circuit coupled to the second inductive coil and to the electric motor operative to determine a rotor shaft angle for the rotor shaft of the electric motor through evaluation of a magnetic field between the first and second inductive coils and further operative to control electrical current distribution to the electric motor in dependence upon the determined rotor shaft angle of the rotor shaft, wherein the evaluation circuit is operative to determine the rotor shaft angle for the rotor shaft of the electric motor through measuring voltages in the second inductive coil created by position of the first inductive coil which creates a magnetic field between the first and second inductive coils, wherein the second inductive coil has a multi-phase winding and the evaluation circuit is operative to determine an induced voltage in each phase winding to determine the rotor shaft angle for the rotor shaft of the electric motor, and wherein the first inductive coil has a multi-pole winding, and each of the first and second inductive coils has equal number of phases; the sensor system further comprising a position control servo system comprising: a comparator circuit coupled to a position compensation pre-amplifier component; wherein the position comparator circuit is configured to receive position information about an output load of the rotor shaft from circuitry coupled to the output load of the rotor shaft, to compare the position information of the output load with a signal indicating a desired position for the output load, and to determine a difference therebetween, wherein the difference is applied in the form of a position difference signal to the position compensation pre-amplifier component; and wherein the position compensation pre-amplifier component is configured to determine a desired velocity of the rotor shaft to position the output load to a desired position. an inductive angle sensor system including: a first inductive coil configured for affixation to a rotor shaft of the electric motor wherein rotation of the rotor shaft causes corresponding rotation of the first inductive coil; a second inductive coil (24,26) fixedly mounted in spaced relationship to the first inductive coil; and an evaluation circuit coupled to the second inductive coil and to the electric motor operative to determine a rotor shaft angle for the rotor shaft of the electric motor through evaluation of a magnetic field between the first and second inductive coils and further operative to control electrical current distribution to the electric motor in dependence upon the determined rotor shaft angle of the rotor shaft, wherein the evaluation circuit is operative to determine the rotor shaft angle for the rotor shaft of the electric motor through measuring voltages in the second inductive coil created by position of the first inductive coil which creates a magnetic field between the first and second inductive coils, a first inductive coil configured for affixation to a rotor shaft of the electric motor wherein rotation of the rotor shaft causes corresponding rotation of the first inductive coil; a second inductive coil (24,26) fixedly mounted in spaced relationship to the first inductive coil; and an evaluation circuit coupled to the second inductive coil and to the electric motor operative to determine a rotor shaft angle for the rotor shaft of the electric motor through evaluation of a magnetic field between the first and second inductive coils and further operative to control electrical current distribution to the electric motor in dependence upon the determined rotor shaft angle of the rotor shaft, wherein the evaluation circuit is operative to determine the rotor shaft angle for the rotor shaft of the electric motor through measuring voltages in the second inductive coil created by position of the first inductive coil which creates a magnetic field between the first and second inductive coils, wherein the second inductive coil has a multi-phase winding and the evaluation circuit is operative to determine an induced voltage in each phase winding to determine the rotor shaft angle for the rotor shaft of the electric motor, and wherein the first inductive coil has a multi-pole winding, and each of the first and second inductive coils has equal number of phases; the sensor system further comprising a position control servo system comprising: a comparator circuit coupled to a position compensation pre-amplifier component; a comparator circuit coupled to a position compensation pre-amplifier component; wherein the position comparator circuit is configured to receive position information about an output load of the rotor shaft from circuitry coupled to the output load of the rotor shaft, to compare the position information of the output load with a signal indicating a desired position for the output load, and to determine a difference therebetween, wherein the difference is applied in the form of a position difference signal to the position compensation pre-amplifier component; and wherein the position compensation pre-amplifier component is configured to determine a desired velocity of the rotor shaft to position the output load to a desired position.