A charged particle can be deflected by electric and magnetic filed both The electric forceoversetrarrF_(e) =qoversetrarrE and magnetic force oversetrarr(F_(m)) = oversetrarr(qv)xxoversetrarr(B) q = charge in coulomb, oversetrarrV is velocity in m//s oversetrarrE is electric filed strengh in N//C and B is magnetic field strength in tesla (T) If a moving charged particle enters simultaneous electric and magnetic field, the net force on the charged particle is oversetrarr(F) =q(oversetrarrE +oversetrarr(v) xx oversetrarrB) If oversetrarr(F) =0 the charged particle will move undeflected in simultaneous fields A charged particle moves in simultaneous electric field oversetrarr(E) and magnetic field oversetrarr(B) If the charged particle passes undeflected , then the value of electric field vectore oversetrarr(E) must be .

A charged particle can be deflected by electric and magnetic filed bot

1.	A charged particle can be deflected by electric and magnetic filed both The electric forceoversetrarrF_(e) =qoversetrarrE and magnetic force oversetrarr(F_(m)) = oversetrarr(qv)xxoversetrarr(B) q = charge in coulomb, oversetrarrV is velocity in m//s oversetrarrE is electric filed strengh in N//C and B is magnetic field strength in tesla (T) If a moving charged particle enters simultaneous electric and magnetic field, the net force on the charged particle is oversetrarr(F) =q(oversetrarrE +oversetrarr(v) xx oversetrarrB) If oversetrarr(F) =0 the charged particle will move undeflected in simultaneous fields A charged particle moves in simultaneous electric field oversetrarr(E) and magnetic field oversetrarr(B) If the charged particle passes undeflected , then the value of electric field vectore oversetrarr(E) must be .
Answer» `oversetrarr(E) =oversetrarrv XX oversetrarr(B)` `oversetrarr(E) =-oversetrarrv xx oversetrarr(B)` `oversetrarr(E) =oversetrarr(B)/oversetrarrv` `oversetrarr(E) =oversetrarr(v)/OVERSETRARRB` SOLUTION :N//A

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