This lack of simulation capabilities can result in embedded logic that does not properly account for analog circuitry (for example, the power design) and performs below expectations/specifications. In traditional control logic design, engineers develop embedded code separate from the analog circuitry, but they eventually need to interact at a system level that is difficult to simulate simultaneously. Accurate and complete desktop system simulation is now possible at an early stage of the design process.ĭescription What Is a Multisim and LabVIEW Complete System Simulation? During this, processing resources are negotiated between both simulation engines in a variable time-step fashion. The digital logic blocks controlling the Multisim design are developed in LabVIEW.Ī simultaneous point-by-point simulation that includes all of the system dynamics between the analog circuitry and the FPGA-based digital control system is performed. Because the high-power analog circuit is developed in Multisim, it benefits from the new SPICE-based power electronics models featured in Multisim 12.0 such as the MOSFET switches and the nonideal RLCs.

It also examines the system simulation of a 3-phase inverter. This tutorial shows you how to use the Multisim and LabVIEW cosimulation feature to achieve closed-loop simulation of transistor-level power electronics as well as implement FPGA-based digital logic used for control. And save yourself a trip to campus.With NI Multisim and NI LabVIEW software, you can implement desktop simulation of your entire analog and digital system before prototyping. Use myFSUVLab for quick access to specialty software, such as SPSS or MATLAB, at home or on the go from any computer, tablet or mobile device. Did you know you can access university software without ever stepping foot on campus? Florida State University's virtual computer lab-myFSUVLab-makes it easy to use university software … anytime, anywhere.

Power in multisim 12