Introduction |
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Simscape Overview 2:08 Get an overview of Simscape capabilities. |
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Modeling With Simscape |
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Modeling a DC Motor 6:31 Model a DC motor using electrical and mechanical physical modeling components. |
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Modeling a Custom Hydraulic Valve 9:42 Model a custom four-way hydraulic valve and a hydraulic cylinder using Simscape Foundation Library blocks. |
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Modeling Heat Transfer of a Projector 7:57 Model heat transfer in a projector using thermal physical modeling components. |
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Simscape Language: Mechanical Example 7:29 Model custom mechanical components using the Simscape language. A nonlinear rotational spring is defined using implicit equations. |
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Simscape Language: Hydraulic Example 5:26 Model custom mechanical components using the Simscape language. A fixed hydraulic orifice is defined using implicit equations. |
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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. |
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Integrating Physical Systems and Controller 5:49 Detect system integration issues in simulation. Mechanical, hydraulic, electrical, and control systems are gradually integrated into a full system model. |
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Simulating With Simscape |
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Automatically log all simulation data from the physical system to the MATLAB workspace. No additional blocks are required to save the data. |
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Shorten Simulation Times with Parallel Computing 6:18 Run simulations in parallel on a multicore desktop. A parameter sweep is accelerated by executing multiple simulations simultaneously. |
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Optimizing System Performance 6:08 Automatically tune the performance of a controlled DC motor to meet system requirements using optimization algorithms. |
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Analyzing and Documenting Results 4:01 Automatically run tests and generate a report documenting simulation results. |
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Deploying Simscape Models |
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Parameter Sweep Analyzing Heat Transfer of a Projector 4:38 Run a parameter sweep using a standalone executable. A Simscape model is converted to C code to enable rapid testing of parameter values. |
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Using Local Solvers for Real-Time Simulation 4:22 Configure Simscape local solvers on your physical networks to enable real-time simulation. The computations per time step are minimized while maintaining accuracy. |
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Simulating In Real Time: Pneumatic Example 4:22 Configure multiple, independent solvers to enable real-time simulation. The model of a pneumatic actuator is simulated on a real-time target. |
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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. |
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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. |
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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. |
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Mechanical Systems |
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Mechanical Rotational System with Stick-Slip Motion In this demo, we show a mechanical rotational system, where a load consisting of a spring, inertia, and viscous rotational friction is driven by a velocity source. |
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Electrical Systems |
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In this demo, we verify the parameters of manufacturer-quoted no-load speed, no-load current, and stall torque for a model based on a Faulhaber Series 0615 DC-Micromotor |
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In this demo, we model a solenoid as an inductance whose value depends on the plunger position and study its dynamics. |
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In this demo, we model a power supply that converts 120 volts AC to 12 volts DC. The model can be used to size the capacitor required for a specified load. |
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Hydraulic Systems |
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Hydraulic Actuator with Analog Position Controller In this demo, we show how a hydraulic system controls mechanical load position in response to a voltage reference demand. The model illustrates how the Foundation library can be used to model systems that span electrical, mechanical, and hydraulic domains. |
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Hydraulic Closed-Loop System with 2-Way Valve In this demo, we show the use of a two-way valve in a closed-loop circuit together with a double-acting cylinder, fixed orifice, mechanical mass, spring, damper, and control blocks. |
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Pneumatic Systems |
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Pneumatic Motor and Directional Control Valve
Model a pneumatic vane motor controlled by a directional valve. Explore the effects of valve size on available motor power and maximum speed. |
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Magnetic Systems |
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Model magnetic and electric systems in a solenoid. Create reusable electromagnetic component models from Foundation Library elements. |
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Thermal Systems |
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Model thermal behavior of an electric motor using the lumped parameter method. Simulate heat flow through various motor components. |
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| Title | Date | Session Time |
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| Optimizing Vehicle Suspension Design through System Level Simulation | 21 Feb 2012 | |
| Embedded Code Generation for AC Motor Controllers | 23 Feb 2012 |