The field lines have no start or stop. They form closed loops and can never cross. The field lines are found inside and outside the magnet. From the point of view looking from inside the magnet the field lines appear to be (say) S to N, while outside the lines appear to be N to S. ( you could choose the opposite convention)
+-->---| S inside -->--------- N | --- outside-->-+
+-----------<-----------<-----------<---------------<-+
Only if they are at the start of a sentence. Otherwise they are not capitalised.
You don't have to its just to see the different cycles.
Patintero, a traditional Filipino street game, typically requires minimal materials. The primary components are chalk or tape to draw the rectangular playing field and the lines that define the boundaries. Players often use a small ball or a similar object as a marker, and sometimes a whistle is used to signal the start and end of the game. The simplicity of the materials makes it easily accessible for players of all ages.
When bringing a specimen into focus using a microscope, you typically start with the lower power objective, such as the 4x or 10x objective. This allows for a wider field of view and makes it easier to locate the specimen. Once the specimen is in clear focus with the lower power, you can then switch to higher power objectives for detailed examination. This method helps prevent damage to the slide and ensures a more efficient focusing process.
A magnet is an alignment of particles in a solid. You can imagine a magnet as a bunch of tiny magnets that are all pointing in the same direction. When they point in the same direction, the little parts add up, and the magnet works like you'd expect. When you heat or hammer a magnet, the little magnetic parts can get jostled and unaligned. When that alignment is disturbed, they no longer point in the same direction and may even cancel other magnetic parts out, weakening and eventualy destroying the magnetism.
Magnetic field lines form closed loops, while electric field lines start and end on charges. Also, magnetic field lines do not begin or end; they always form continuous loops.
Magnetic field lines are closed loops, while electric field lines always start at positive charges and end at negative charges. Additionally, magnetic field lines do not have beginning or end points, unlike electric field lines which have distinct starting and ending points.
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.
Magnetic field lines are similar to electric field lines in that they both represent the direction and strength of the field at various points in space. Both types of field lines are used to visualize the field's behavior and provide insights into the field's properties. However, magnetic field lines form closed loops, while electric field lines start and end on charges.
Magnetic field lines are closed and continuous curves because they represent the direction of the force experienced by a magnetic north pole placed in that field. The lines form closed loops because magnetic field lines never start or end; they always form complete loops that return to their origin. This continuous nature of magnetic field lines reflects the continuous nature of magnetic fields in space.
Electrostatic field lines represent the direction of the electric field at each point in space. They originate from positive charges and terminate on negative charges, ensuring that they do not form closed loops. This is because field lines cannot start or end at a point without a charge, and must always connect charges to maintain the conservation of electric flux.
yes because they start from the positive charge and ends at the negative charge so closed path
Yes, magnetic field lines form closed loops that are continuous. They always start from the north pole of a magnet, loop around the magnet, and return to the south pole.
The start points of electric field lines are positive charges, while the endpoints are negative charges. In the case of magnetic field lines, they emerge from the north pole of a magnet and terminate at the south pole. The lines indicate the direction of the force that a positive test charge would experience in an electric field or the direction of magnetic force in a magnetic field. Filings, such as iron filings in the presence of a magnetic field, visually illustrate these paths.
At any distance. The strength of the repulsion increases with proximity and it is inversely proportional to the square of distance between them i.e. if you double the distance the force is 1/4th
they show wich way iron shavings would align themselves They always make closed loops. Electric field lines can either form closed loops or they can start and finish on isolated electric charges. Magnetic field lines always only form closed loops.
Maxwell's second equation (Gauss's law for magnetism) states that magnetic monopoles do not exist since magnetic field lines always form closed loops, indicating that there is no source or sink of magnetic field. This means that magnetic field lines never start or end at a single point, and instead always form complete loops, leading to the conclusion that magnetic monopoles do not exist.