Analytical & Numerical Model Development for Ferroelectric Device
Budget: $250 – $750 USD
Project budget- $400 + bonus ($100-$50)
I am seeking a skilled professional with a strong background in mathematical/analytical and numerical modeling and ferroelectric devices to create multiple models that can correlate with the experimental results of a ferroelectric device. The focus of this project is to cover multiple functionalities of the device including sensing, actuation, and pyroelectricity.
Key Aspects:
- Matching specific experimental results: The model needs to align with the voltage-current, voltage-pressure, voltage-temperature, and voltage-strain characteristics; polarization-electric field loop; and dielectric response of the device.
- Multi-functionality: The model should comprehensively cover the device's capabilities in sensing, actuation, and its pyroelectric properties.
Ideal Skills and Experience:
- Strong expertise in mathematical modeling and numerical modelling using COMSOL
- Extensive knowledge and experience with ferroelectric devices
- Ability to interpret and match complex experimental data
- Experience in developing models covering multiple device functionalities
The project requirements are as follows:
1) Numerical- Comsol simulation to match experimental result
2) Analytical- Mathematical model to match the above comsol and experimental results
Deliverables:
1) Build multiple analytical models to match experimental results and explain the model comprehensively by word document and literature citations. Then build a numerical model using COMSOL to match the result obtained from the analytical and experimental result.
2) Once it's done, it is required that the seller prepare a report and submit it alongside the softcopy of comsol and analytical model.
3) The report and model should have all the tests requested by the buyer in addition to those that are being experimented.
4) It is of significant importance that the seller screen-record (i.e., record video with audio) the COMSOL model building steps (step-by-step) for reproducibility and steps to derive the mathematical model.
I am seeking a skilled professional with a strong background in mathematical/analytical and numerical modeling and ferroelectric devices to create multiple models that can correlate with the experimental results of a ferroelectric device. The focus of this project is to cover multiple functionalities of the device including sensing, actuation, and pyroelectricity.
Key Aspects:
- Matching specific experimental results: The model needs to align with the voltage-current, voltage-pressure, voltage-temperature, and voltage-strain characteristics; polarization-electric field loop; and dielectric response of the device.
- Multi-functionality: The model should comprehensively cover the device's capabilities in sensing, actuation, and its pyroelectric properties.
Ideal Skills and Experience:
- Strong expertise in mathematical modeling and numerical modelling using COMSOL
- Extensive knowledge and experience with ferroelectric devices
- Ability to interpret and match complex experimental data
- Experience in developing models covering multiple device functionalities
The project requirements are as follows:
1) Numerical- Comsol simulation to match experimental result
2) Analytical- Mathematical model to match the above comsol and experimental results
Deliverables:
1) Build multiple analytical models to match experimental results and explain the model comprehensively by word document and literature citations. Then build a numerical model using COMSOL to match the result obtained from the analytical and experimental result.
2) Once it's done, it is required that the seller prepare a report and submit it alongside the softcopy of comsol and analytical model.
3) The report and model should have all the tests requested by the buyer in addition to those that are being experimented.
4) It is of significant importance that the seller screen-record (i.e., record video with audio) the COMSOL model building steps (step-by-step) for reproducibility and steps to derive the mathematical model.