Abstract: The present invention provides an inbred corn line designated KFX7404, methods for producing a corn plant by crossing plants of the inbred line KFX7404 with plants of another corn plant. The invention further encompasses all parts of inbred corn line KFX7404, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line KFX7404, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated KFX7404, methods for producing a corn plant by crossing plants of the inbred line KFX7404 with plants of another corn plant. The invention further encompasses all parts of inbred corn line KFX7404, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line KFX7404, and plants produced according to these methods.

Abstract: An embodiment pertains to a method including determining if an amplitude of an error signal has entered steady state. If the amplitude of the error signal has not entered steady state, then amplify with a high gain the amplitude of the AC component of the error signal. If the amplitude of the error signal has entered steady state, then initiate a timer. Determining if the amplitude of the error signal has remained in steady state while the timer runs. If the amplitude of the error signal has remained in steady state while the timer runs, then amplify with a low gain the amplitude of the AC component of the error signal.

Abstract: The present invention provides an inbred corn line designated KCJ6586, methods for producing a corn plant by crossing plants of the inbred line KCJ6586 with plants of another corn plant. The invention further encompasses all parts of inbred corn line KCJ6586, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line KCJ6586, and plants produced according to these methods.

Abstract: An embodiment pertains to a method including determining if an amplitude of an error signal has entered steady state. If the amplitude of the error signal has not entered steady state, then amplify with a high gain the amplitude of the AC component of the error signal. If the amplitude of the error signal has entered steady state, then initiate a timer. Determining if the amplitude of the error signal has remained in steady state while the timer runs. If the amplitude of the error signal has remained in steady state while the timer runs, then amplify with a low gain the amplitude of the AC component of the error signal.

Abstract: On embodiment pertains to a method including determining if an amplitude of an error signal has entered steady state. If the amplitude of the error signal has not entered steady state, then amplify with a high gain the amplitude of the AC component of the error signal. If the amplitude of the error signal has entered steady state, then initiate a timer. Determining if the amplitude of the error signal has remained in steady state while the timer runs. If the amplitude of the error signal has remained in steady state while the timer runs, then amplify with a low gain the amplitude of the AC component of the error signal.

Abstract: On embodiment pertains to a method including determining if an amplitude of an error signal has entered steady state. If the amplitude of the error signal has not entered steady state, then amplify with a high gain the amplitude of the AC component of the error signal. If the amplitude of the error signal has entered steady state, then initiate a timer. Determining if the amplitude of the error signal has remained in steady state while the timer runs. If the amplitude of the error signal has remained in steady state while the timer runs, then amplify with a low gain the amplitude of the AC component of the error signal.

Abstract: On embodiment pertains to an apparatus including a current share control circuit configured to receive a first sample inductor current sense signal representative of a current in a first power stage, configured to receive from a data bus a second sample inductor current sense signal from a fixed reference phase, and which generates a trim signal. A first control loop having an output configured to be coupled to an input of the first power stage, and configured to receive a signal representative of an output voltage and the trim signal.

Abstract: The present invention provides an inbred corn line designated MFX7747, methods for producing a corn plant by crossing plants of the inbred line MFX7747 with plants of another corn plant. The invention further encompasses all parts of inbred corn line MFX7747, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line MFX7747, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated IJ7331, methods for producing a corn plant by crossing plants of the inbred line IJ7331 with plants of another corn plant. The invention further encompasses all parts of inbred corn line IJ7331, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line IJ7331, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated MFX7805, methods for producing a corn plant by crossing plants of the inbred line MFX7805 with plants of another corn plant. The invention further encompasses all parts of inbred corn line MFX7805, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line MFX7805, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated FX8609, methods for producing a corn plant by crossing plants of the inbred line FX8609 with plants of another corn plant. The invention further encompasses all parts of inbred corn line FX8609, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line FX8609, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated MFX7589, methods for producing a corn plant by crossing plants of the inbred line MFX7589 with plants of another corn plant. The invention further encompasses all parts of inbred corn line MFX7589, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line MFX7589, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated MFX7805, methods for producing a corn plant by crossing plants of the inbred line MFX7805 with plants of another corn plant. The invention further encompasses all parts of inbred corn line MFX7805, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line MFX7805, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated FX8609, methods for producing a corn plant by crossing plants of the inbred line FX8609 with plants of another corn plant. The invention further encompasses all parts of inbred corn line FX8609, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line FX8609, and plants produced according to these methods.

Abstract: The present invention provides an inbred corn line designated MFX7589, methods for producing a corn plant by crossing plants of the inbred line MFX7589 with plants of another corn plant. The invention further encompasses all parts of inbred corn line MFX7589, including culturable cells. Additionally provided herein are methods for introducing transgenes into inbred corn line MFX7589, and plants produced according to these methods.

Abstract: An auto-compensation method for compensating power regulators configured to generate a regulated output voltage. Auto-compensation may be performed dynamically by determining various coefficients of a compensation function used in compensating the power regulator, based on assumptions about the structure of the regulator and corresponding filters. The method may be used to determine at least the DC loop gain and the position of the compensation zeros, without requiring any prior knowledge of the values of the various components of the system. Furthermore, the selection of the compensation parameters (loop gain, position of zeroes) may be based on measurement of various state variables of the actual power converter, and adjustment of the various coefficients of the compensation function according to the measurements. Since no power-plant model of the power regulator is used, inaccuracies that would be inherent using any method that employs a model of the system instead of the system itself may be eliminated.

Abstract: Complex filters may be used to achieve compensation of a plant, corresponding for example to a power regulator or point-of-load (POL) regulator. Digital filter coefficients may be mapped to analogous poles and zeros, or they may be mapped to values of the quality factor (Q) of the output, frequency, and gain. The plant may be observed and characterized using a network analyzer to generate the Bode plot (or Nyquist plot) for the plant. The digital filter coefficients may be mapped to features that may be identified on the Bode plot (or Nyquist plot) to easily correlate characteristics of the digital filter or digital compensator to the plant characteristics. The mapped features may be adjusted, for example by a user, either manually or by executing one or more optimization algorithms, to achieve the desired results relative to the Bode plot (or Nyquist plot).

Abstract: An auto-compensation method for compensating power regulators configured to generate a regulated output voltage. Auto-compensation may be performed dynamically by determining various coefficients of a compensation function used in compensating the power regulator, based on assumptions about the structure of the regulator and corresponding filters. The method may be used to determine at least the DC loop gain and the position of the compensation zeros, without requiring any prior knowledge of the values of the various components of the system. Furthermore, the selection of the compensation parameters (loop gain, position of zeroes) may be based on measurement of various state variables of the actual power converter, and adjustment of the various coefficients of the compensation function according to the measurements. Since no power-plant model of the power regulator is used, inaccuracies that would be inherent using any method that employs a model of the system instead of the system itself may be eliminated.