An electron is moving with an initial velocity `vecv=v_(0)hati` and is in a magnetic field `vecB=B_(0)hatj`. Then it's de-Broglie wavelength

An electron is moving with an initial velocity vecv=v_0hati and is in a magnetic field vecB=B_0hatj . Then its de-Broglie wavelength

An electron is moving with an initial velocity vecv=vecv_(0) hati and is in a uniform magnetic field vecB=B_(0) hatj . Then its de Broglie wavelength

An electron is moving with an initial velocity vec(V) = v_(0) hat(i) and is in a magnetic field vec(B) = B_(0)hat(j) . Then its de Broglie wavelength

An electron is moving with an initial velocity vec v = v_0 vec i and is in a magnetic field vec B = B_0 vec j . Then its de Broglie wavelength

An electron (mass m)with an initial velocity vecv=v_(0)hati is in an electric field vecE=E_(0)hatj . If l,ambda_(0)=h..mv_(0) .it's de-Broglie wavelength at time t is given by

An electron (mass m) with an initial velocity vecv=v_(0)hati is in an electric field vecE=E_(0)hatj . If lambda_(0)=h//mv_(0) . It's de-broglie wavelength at time t is given by

An electron (mass m) with an initial velocity vecv=v_(0)hati is in an electric field vecE=E_(0)hatj . If lambda_(0)h//mv_(0) . It's de-broglie wavelength at time t is given by

An electron mass m with an initial velocity vecv=v_0hati (v_0>0) is in an electric field vecE=-E_0hati(E_0=constant>0) . Its de-Broglie wavelength at time t is given by

An electron of charge e and mass m moving with an initial velocity v_(0)hat(i) is subjected to all electric field E_(0)hat(j) . The de-Broglie wavelength of the electron at a time t is (Initial de-Broglie wavelength of the electron = lambda_(0) )