I think you mean "cross". And furthermore I think you mean the old iron filings around a bar magnet demonstration showing "magnetic lines of force". With all this guessing I propose an answer that your teacher won't like either: They don't cross because they don't exist. To prove this-- Sprinkle the iron filings on paper with a magnet beolw the sheet. Notice that they don't move. Photograph it. Do the experiment again. Photgraph this too and compare the two photos. They will be quite different showing that the "lines of force" are only an artifact of iron filings being sprinkled onto the paper.
Never
No, this statement is false. Meridians are lines of longitude that converge at the poles, meaning they touch at the poles. Lines of latitude, however, like the equator, never intersect and are always parallel to each other.
The main topographic map rules include contour lines never crossing, contour lines close together represent steep terrain, contour lines spread out represent flat terrain, and elevation is indicated by the contour lines.
Electric appliances should never be used near water sources like sinks, bathtubs, or pools. They should also not be used in damp or wet areas such as the bathroom or outdoors during rain. Additionally, electric appliances should never be used in areas with flammable materials such as gasoline or chemicals.
No. Just like parallel lines on a flat surface, any two lines of latitude that you choose are the same distance apart everywhere, they never cross, and they never touch. That's why they're often called "parallels" of latitude.
1. Electric field lines of force originate from the positive charge and terminate at the negative charge. 2. Electric field lines of force can never intersect each other. 3. Electric field lines of force are not present inside the conductor, it is because electric field inside the conductor is always zero. 4. Electric field lines of force are always perpendicular to the surface of conductor. 5. Curved electric field lines are always non-uniform in nature.
no, never.
many animals do however never feed cress to poultry animals!:)
many animals do however never feed cress to poultry animals!:)
If we place a charged body to a position it feel a force which depends the presence of other charged body around it. Now we can say something was there in that position before placing that charged body. Here arise a concept of electric field.Electric field is defined as the electric force per unit charge. The direction of the field is taken to be the direction of the force it would exert on a positive test charge. The electric field is radially outward from a positive charge and radially in toward a negative point charge. A simple isolated electron in an earth can create an electric field in the moon eventhough its negligible.
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No, electric field lines do not cross each other. If they did, it would imply that there are multiple directions for the electric field at the same point, which is not possible. The electric field lines always repel or attract each other, but they never cross.
the tangent at any point on an electric field line gives the direction of the field at that point . so if field lines intersect then electric field at will have more than1 direction which is impossible
Electric field lines are drawn to represent the direction of the electric field at various points in space. They follow specific rules: they originate from positive charges and terminate on negative charges, they never intersect, the density of lines indicates the strength of the electric field, and they are perpendicular to the surface of a conductor at equilibrium.
well its simple youngster, parallel lines never touch i learned that in the air force
To effectively draw electric field lines, start by placing positive charges as the source and negative charges as the sink. Draw lines that start at positive charges and end at negative charges, with the lines closer together indicating stronger electric fields. Remember that electric field lines never cross and always point away from positive charges and towards negative charges.
Field lines associated with a uniform electric field are straight and evenly spaced. They point in the direction of the electric field and show the path a positive test charge would follow. The field lines never intersect and are closer together where the field is stronger.