e 8 33% Part (b) Using the equation for the magnetic field determined in part (a), calculate the magnetic flux, in webers, through a single loop of the solenoid with a current of I=2.1 A. The coil is d= 6 cm long and has a cross-sectional area of A=4 cm² and consists of N=190 turns. 4 - 635.1 10-6 $= 6.351E-4 X Attempts Remain D 8 33% Part (c) The self inductance relates the magnetic flux linkage to the current through the coil. Calculate the self inductance L in units of µH. The coil 1s d = 6 cm long and has a cross-sectional area of A = 4 cm and consists of N= 190 turns. L =0.00030243| Grade Summary Deductions Potential 39 97% sin() cos) tan() HOME Submissions cotan) asin() E 1^ acos) sinh) 4 6 Attempts remaning: (39% per attempt) detailed viewv atan() acotan() 12 3 cosh() tanh() cotanh() END 306 O Degrees Radians VO BACKSPACE DEL CLEAR
e 8 33% Part (b) Using the equation for the magnetic field determined in part (a), calculate the magnetic flux, in webers, through a single loop of the solenoid with a current of I=2.1 A. The coil is d= 6 cm long and has a cross-sectional area of A=4 cm² and consists of N=190 turns. 4 - 635.1 10-6 $= 6.351E-4 X Attempts Remain D 8 33% Part (c) The self inductance relates the magnetic flux linkage to the current through the coil. Calculate the self inductance L in units of µH. The coil 1s d = 6 cm long and has a cross-sectional area of A = 4 cm and consists of N= 190 turns. L =0.00030243| Grade Summary Deductions Potential 39 97% sin() cos) tan() HOME Submissions cotan) asin() E 1^ acos) sinh) 4 6 Attempts remaning: (39% per attempt) detailed viewv atan() acotan() 12 3 cosh() tanh() cotanh() END 306 O Degrees Radians VO BACKSPACE DEL CLEAR
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