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The area that we're concerned will be the surface area of the ends of Gaussian surface which is equals to π / R^2TSny said:Which parts of the surface of the cylinder have nonzero flux?
Of course you mean π⋅R^2.Fatima Hasan said:The area that we're concerned will be the surface area of the ends of Gaussian surface which is equals to π / R^2
This is correct.Φ = E A = Q enclosed / ε
Q enclosed = 100 * π * (0.1)^2 * 8.85 = 27.8 pC
##A = 2 \pi r h## , we use this formula to find the net flux through a cylinder , right ?TSny said:Of course you mean π⋅R^2.
This is correct.
Not in this problem. The area ##A = 2 \pi r h## is the "lateral" area of the curved surface of the cylinder, as shown below in blueFatima Hasan said:##A = 2 \pi r h## , we use this formula to find the net flux through a cylinder , right ?
NoTSny said:Not in this problem. The area ##A = 2 \pi r h## is the "lateral" area of the curved surface of the cylinder, as shown below in blue
View attachment 221399
Is there any flux through the blue surface in the problem you are working on?
Net charge inside a cylinder refers to the overall electric charge present within the cylindrical volume. It takes into account both the positive and negative charges present inside the cylinder and calculates the difference between them.
The net charge inside a cylinder can be calculated by adding up the individual charges present inside the cylinder. The charges can be either positive or negative, and their magnitude and location must be taken into account when calculating the net charge.
The net charge inside a cylinder can be affected by various factors such as the number and distribution of charges, the distance between the charges, and the electric field strength inside the cylinder. Other factors such as the material of the cylinder and the presence of other objects nearby can also affect the net charge.
The net charge inside a cylinder is significant because it determines the electric field strength inside the cylinder and can affect the behavior of charged particles within the cylinder. It is also a crucial factor in understanding the overall electric potential and capacitance of the cylinder.
The net charge inside a cylinder is used in various practical applications such as in the design of capacitors, in the study of electromagnetic fields, and in the development of electronic devices. It is also a crucial concept in understanding the behavior of charged particles in cylindrical structures, which is relevant in fields such as plasma physics and material science.