SimElectronics

Modeling a DC Motor With Driver   7:28

Model a DC motor along with a PWM driver. Averaged and detailed driver models are used to balance the tradeoff between model fidelity and simulation speed.

Modeling a Mechatronic System   3:59

Model a mechatronic system in the Simulink environment. A model of an electrical motor and motor driver are connected to a three-dimensional mechanical model of an aileron.

Estimating Parameters of a DC Motor   4:40

Tune parameters automatically until simulation results match measurement data. Optimization algorithms are used to obtain realistic parameter values for a DC motor.

Importing Measured Data to Estimate Fuel Economy   3:30  

Import measured data on fuel consumption to estimate fuel economy. A surface is fit to the measurement data and used in simulation of a hybrid-electric vehicle.

Integrating Physical Systems and Controller   5:50  

Detect system integration issues in simulation. Mechanical, hydraulic, electrical, and control systems are gradually integrated into a full system model.

Optimizing System Performance   5:19

Automatically tune the performance of a controlled DC motor to meet system requirements using optimization algorithms.

Balancing Model Fidelity and Simulation Speed   5:01  

Select model variants and adjust simulation modes to properly configure the model for the test you wish to run.

Analyzing and Documenting Results   4:02  

Automatically run tests and generate a report documenting simulation results.

Simulating In Real Time: Electromechanical Example   5:34  

Configure multiple, independent solvers to enable real-time simulation. The model of a hybrid electric vehicle (HEV) is simulated on a real-time target.

Hardware-in-the-loop (HIL) Testing   5:21

Use HIL testing instead of hardware prototypes to test control algorithms. A multidomain physical model is converted to C code and simulated on controller hardware.

Protecting Intellectual Property in Subsystems   4:39  

Share physical models without exposing intellectual property. The protected subsystems can be used for simulation and parameter testing.

Protecting Simscape Language Components   2:31  

Share Simscape language source code without exposing your intellectual property. The protected components can be used for simulation and parameter testing.

Controlled DC Motor  

Rotational Actuator Torque-Speed Characteristics  

Linear Electric Actuator (Motor Model)  

Linear Electric Actuator (System-Level Model)  

Linear Electric Actuator (Implementation Model)  

Controlled Stepper Motor  

Finite Element Parameterized Solenoid    

Brushless DC Motor    

Torque Motor    

Modeling a Digipot from a Datasheet  

Strain Gauge and Wheatstone Bridge  

Thermistor-Controlled Fan  

Circuit Level Switched Capacitor ADC    

MOSFET Characteristics  

JFET Amplifier and Frequency Response Analysis  

NPN Bipolar Transistor Characteristics    

Astable Oscillator  

Modeling an Integrated Circuit  

Switching Audio Power Amplifier    

Triangle Wave Generator    

Small-Signal Frequency-Domain Analysis    

Solar Cell Parameter Extraction From Data    

Voltage Regulator    

Synchronous Buck Converter    

Band-Pass Filter Using Three Mutually-Coupled Inductors    

Class-E RF Amplifier    

Diode Ring Demodulator    

Kinetic Energy Recovery System