Can you help me in doing the analysis and conclusion considering those questions which are in the analysis part? Thank you **Charges and Fields Simulation**This image represents an interactive simulation showcasing electric fields around a series of charges. The background is a grid, facilitating precise positioning and measurement. ### Key Elements of the Diagram:- **Positive Charges**: Represented by red circles with a plus sign, aligned vertically on the left side. Each charge has a magnitude of +1 nC (nanocoulombs).- **Negative Charges**: Depicted as blue circles with a minus sign, aligned vertically on the right side. Each has a magnitude of -1 nC.- **Electric Field Lines**: Green lines illustrate the electric field. They emanate outward from the positive charges and converge towards the negative charges, demonstrating the direction of the field.### Interface Options:- **Settings Panel** (top right): - **Electric Field**: Option to visualize the electric field, currently not selected. - **Direction Only**: Displays only the direction of the field, not selected. - **Voltage**: Option to display voltage levels, not selected. - **Values**: Option to show numerical values of field strength, not selected. - **Grid**: The grid option is checked, showing the background grid for reference. - **Voltage Sensor**: Shows a reading of 0.0 V, indicating the electric potential at that point.### Controls:- **Charge Key** (bottom center): - **Red icon**: +1 nC charges. - **Blue icon**: -1 nC charges. - **Yellow dot**: Sensor locations to measure field properties (not shown in the current image).This simulation helps visualize the behavior of electric fields and potential around static charges, essential for understanding concepts in electromagnetism. **Procedure 2**- Click the reset swirly, turn off the electric field, turn on the grid.- Stack a few charges of each kind on top of each other as shown in the picture.- Create 10 equipotentials in the space around the charges.- Observe the shape and line density in the space around the charges.- Screenshot for your report.**Analysis**There should be an obvious trend in your observations. If not, add more charges and repeat the exercise until you see it. You've created a reasonable facsimile of charged parallel plates. Discuss your model in your report. What does your physics knowledge tell you about the field between parallel plates? Do your observations bear that out? Textbooks like to talk about infinite plates, but infinity is math not physics. What happens to the electric field in the regions outside the plates?**Diagram Explanation**The diagram shows two vertical stacks of charges. The left stack consists of red charges, and the right stack consists of blue charges. The arrangement suggests a simulation of charged parallel plates, with lines probably representing electric field lines or equipotential lines in an educational context.

We have study the analysis; and according to the experiment conclude data for the given situations;

There should be an obvious trend in your observations. If not, add more charges and repeat the exercise until you see it. You've created a reasonable facsimile of charged parallel plates. Discuss your model in your report. What does your physics knowledge tell you about the field between parallel plates? Do your observations bear that out? Text books like to talk about infinite plates, but infinity is math not physics. What happens to electric field in the regions outside the plates?