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Vishay thermistors make sense in many applications: NTC or PTC thermistors are needed for temperature sensing and compensation, protection against overvoltages, and the attenuation of surge currents. The electronic simulation of analog electronics using models of these thermistors can help design engineers working in these fields to develop their intuition. This video series — dedicated to electronic simulation with Vishay thermistors and RTDs — will explore design simulations for the temperature control of thermoelectric modules, heat detector temperature compensation of resistive strain gage sensors, air flow detection, and more general PID temperature control circuits.
Explains the Vishay approach in regard to electronic simulation with thermistors, and shows partner platforms in which users can either simulate online, download models, or complete simulations.
Focuses on how to use SPICE models of leaded PTCEL components in SIMetrix (with the cooperation of SIMetrix Technologies Ltd.)
Presents a simulation of analog hardware temperature compensation in a Wheatstone bridge for resistive strain gages using five software simulation tools (LTspice®, Multisim, PSpice®, PSpice® for TI, and SIMetrix).
Features an LTspice® simulation for the optimization of a full old-school analog proportional / integrator / derivator (PID) controller with temperature measurement performed by a Vishay NTC thermistor.
Explains the Vishay approach in regard to electronic simulation with thermistors, and shows partner platforms in which users can either simulate online, download models, or complete simulations.
This video explains the advantages of the high energy current limiting PTCEL67 range in battery pre-charge circuit. By use of an LTspice electronic simulation, it is shown how to build an optimal network of parallel and series of these PTCEL67 elements in order to limit the surge current while keeping the shortest charging time of the DC link capacitor.
Further explores the Vishay approach in regard to electronic simulation with thermistors and RTDs, with a focus on PTC current limiting thermistors.
Highlights an LTspice® simulation of a constant temperature anemometer circuit based on the dissipation characteristics of a 5 W TFPT0402 RTD.
Original material used for Peltier SPICE model to be found here.
Provides LTspice® simulations using Vishay thermistors in several designs for fire detector applications (level detection and rate of rise).
Explores the Vishay approach in regard to electronic simulation with thermistors, and shows partner platforms in which users can either simulate online, download models, or complete simulations.
By integrating the Vishay models directly into their corporate or personal software, design engineers will be able to simulate their circuits, exploring worst case scenarios or Monte Carlo distributions for the component tolerances. They will acquire a better understanding of their applications by pushing their tolerance limits. This will eventually lead to cost savings, as it can eliminate tedious hours of trial and error in the lab. Whether they use LTspice®, PSpice® (for TI), SIMetrix, TINA TI, Multisim, Altium Designer, or another multi-domain language like VHDL AMS (Siemens EDA), Vishay’s models will work in a plug and play mode.
Entire self-contained files of these simulations are available for download on platforms like Siemens EDA Part Quest explore or Hackster.io, as well as vishay.com. Not only are the thermistors models included, but so are other devices involved in the applications, like Peltier modules, strain gages, optocouplers, and more.