This design is similar to the design "Pre-Circuit Design for Moog PMSM - BLDC Motor Use-Case", but the continuous drive is replaced with a sampled-data space vector modulation (SVM) Controller and a 3-Phase inverter circuit that uses ideal (direct digital controlled) switches.

You can also see a version of this design that uses actual Power MOSFET models to replace the ideal switches: "DS Power MOSFET Switching Design for Moog PMSM - BLDC Motor Use-Case"

This design is similar to the design "Pre-Circuit Design for Moog PMSM - BLDC Motor Use-Case", but the continuous drive is replaced with a sampled-data space vector modulation (SVM) Controller and a 3-Phase inverter circuit that uses ideal (direct digital controlled) switches.

You can also see a version of this design that uses actual Power MOSFET models to replace the ideal switches: "DS Power MOSFET Switching Design for Moog PMSM - BLDC Motor Use-Case"

This design is similar to the design "Pre-Circuit Design for Moog PMSM - BLDC Motor Use-Case", but the continuous drive is replaced with a sampled-data space vector modulation (SVM) Controller and a 3-Phase inverter circuit that uses ideal (direct digital controlled) switches.

You can also see a version of this design that uses actual Power MOSFET models to replace the ideal switches: "DS Power MOSFET Switching Design for Moog PMSM - BLDC Motor Use-Case"

This design is similar to the design "Pre-Circuit Design for Moog PMSM - BLDC Motor Use-Case", but the continuous drive is replaced with a sampled-data space vector modulation (SVM) Controller and a 3-Phase inverter circuit that uses ideal (direct digital controlled) switches.

You can also see a version of this design that uses actual Power MOSFET models to replace the ideal switches: "DS Power MOSFET Switching Design for Moog PMSM - BLDC Motor Use-Case"

Permanent Magnet Synchronous Machine (PMSM) and Ideal (continuous) Drive circuit, with mechanical load. The drive includes a D-Q control algorithm.

In a companion version of this design, "PMSM Motor And PWM Drive", the same motor control algorithm is used but SVM (space vector modulation) provides PWM switching signals to ideal switches in an actual 3-phase inverter implementation.

Permanent Magnet Synchronous Machine (PMSM) and Ideal (continuous) Drive circuit, with mechanical load. The drive includes a D-Q control algorithm.

In a companion version of this design, "PMSM Motor And PWM Drive", the same motor control algorithm is used but SVM (space vector modulation) provides PWM switching signals to ideal switches in an actual 3-phase inverter implementation.

Induction Machine (IM) and PWM Drive circuit, with mechanical fan load.

Induction Machine (IM) and PWM Drive circuit, with mechanical fan load.

Induction Machine (IM) and Variable Frecuency Driver (V/f type) starting from the DC bus feeding the power mosfets, which are driven using PWM.

For a given motor the DC power supply or battery must be adjusted to the rms line voltage times square root of 2. and the V_to_f gain must also be adjusted to Vrms/nominal freq.

After that, only the frequency imput needs to be changed according to the desired speed or operating point

Induction Machine (IM) and PWM Drive circuit, with mechanical fan load.