Feeding temperature profile from experimental data into MAXWELL

In summary, the user is running experimental analysis to find the thermal conductivity and convection coefficient of litz wire and air using Ansys Maxwell's reverse engineering method.
  • #1
mami826
1
0
Hi All,

my aim is to find the thermal conductivity of litz wire and also convection coefficient of litz wire and air.

So, I am running experimental analysis (10A current into litz wire) and capturing the temperature of litz wire. So, I have temperature profile versus time for litz wire. Would you please help me how I can feed the results (temperature profile) into ansys maxwell (reverse engineering) to define unknown thermal conductivity or in thermal analysis convection coefficient?

Is it possible?Thanks Regards
 
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  • #2
Yes, it is possible to use the temperature profile data to calculate the thermal conductivity or convection coefficient of litz wire and air. You can use the reverse engineering method in Ansys Maxwell to calculate the thermal conductivity or convection coefficient from the temperature profile data. The reverse engineering method involves creating a simple model of the system and then running simulations with different values of the unknown parameters until the simulation results match the measured temperature profile data. Once the simulation results match the measurements, the unknown parameter can be determined.
 

1. What is MAXWELL and how does it relate to feeding temperature profile?

MAXWELL is a computer program that is used for scientific simulations, specifically for analyzing data related to polymer materials. It uses a mathematical model called the Maxwell model to predict the behavior of viscoelastic materials, such as polymers, under various conditions. Feeding temperature profile is a key factor in this model, as it affects the overall properties and behavior of the polymer.

2. How is the feeding temperature profile determined and collected for use in MAXWELL?

The feeding temperature profile is typically collected through experimental data, where the temperature of the polymer is measured at different points during the feeding process. This data is then entered into MAXWELL as a temperature profile, which is used to calculate the viscoelastic properties of the polymer.

3. Can MAXWELL accurately predict the behavior of polymers based on the feeding temperature profile?

MAXWELL is a widely used and validated program, and when used with accurate and precise experimental data, it can accurately predict the behavior of polymers under various conditions. However, it is important to note that there are many factors that can affect the behavior of polymers, and the feeding temperature profile is just one of them.

4. What are the potential uses of the feeding temperature profile in MAXWELL?

The feeding temperature profile can be used in MAXWELL to predict the viscoelastic properties of polymers, such as their viscosity, elasticity, and relaxation behavior. This information can then be used to optimize the manufacturing process, improve product quality, and understand the behavior of polymers in different environments.

5. Are there any limitations to using the feeding temperature profile in MAXWELL?

Like any scientific simulation program, MAXWELL has its limitations. It relies heavily on accurate and precise experimental data, and any errors or inconsistencies in the feeding temperature profile can affect the accuracy of the results. Additionally, the feeding temperature profile is just one factor in the overall behavior of polymers, so other factors must also be considered for a comprehensive understanding of polymer behavior.

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